mhurhangee/patent-ind-claim-en huggingface dataset:
A method of utilizing a photovoltaic device as a sensor for a building energy management, the method comprising the steps of: providing the photovoltaic device for both providing power to the building and using output parameters of the photovoltaic device as sensor data to provide information about current building conditions, the current building conditions including light intensity and ambient temperature, wherein the photovoltaic device includes a semitransparent window unit; determining the information about current building conditions including light intensity and ambient temperature by comparing a voltage output parameter and a current output parameter from the photovoltaic device to predetermined values obtained under specific benchmark conditions; using, by an energy management system , the information about the current building conditions as input parameters for determining optimal settings for one or more heating, cooling, and dynamic energy-saving building elements including at least an electrochromic window element ; and determining, by the energy management system based on the information about the current building conditions, whether the electrochromic window element should be in a high visible light transmission (VLT) state or a low visible light transmission (VLT) state. providing the photovoltaic device for both providing power to the building and using output parameters of the photovoltaic device as sensor data to provide information about current building conditions, the current building conditions including light intensity and ambient temperature, wherein the photovoltaic device includes a semitransparent window unit; determining the information about current building conditions including light intensity and ambient temperature by comparing a voltage output parameter and a current output parameter from the photovoltaic device to predetermined values obtained under specific benchmark conditions; using, by an energy management system , the information about the current building conditions as input parameters for determining optimal settings for one or more heating, cooling, and dynamic energy-saving building elements including at least an electrochromic window element ; and determining, by the energy management system based on the information about the current building conditions, whether the electrochromic window element should be in a high visible light transmission (VLT) state or a low visible light transmission (VLT) state.
Apparatus for forming a composite laminate structure, comprising: a tool having contoured tool surfaces configured to have prepreg plies placed and formed thereon, wherein the tool includes a cap section , a pair of flange sections , and a pair of web sections connecting the flange sections ; a former device configured to be placed on the prepreg plies and form the plies onto the contoured tool surfaces, the former device including a plurality of forming segments and flexible segment connections between the forming segments , wherein each of the forming segments is configured to form a portion of the plies on the contoured tool surfaces, and wherein each of the forming segments includes a body configured to hold the plies against the cap section, and flexible forming fingers having inner extremities configured to sweep the plies over the web sections and onto the flange sections ;and a flexible vacuum diaphragm covering the plies, the flexible vacuum diaphragm being configured to be evacuated and compact the former device down onto the tool . a tool having contoured tool surfaces configured to have prepreg plies placed and formed thereon, wherein the tool includes a cap section , a pair of flange sections , and a pair of web sections connecting the flange sections ; a former device configured to be placed on the prepreg plies and form the plies onto the contoured tool surfaces, the former device including a plurality of forming segments and flexible segment connections between the forming segments , wherein each of the forming segments is configured to form a portion of the plies on the contoured tool surfaces, and wherein each of the forming segments includes a body configured to hold the plies against the cap section, and flexible forming fingers having inner extremities configured to sweep the plies over the web sections and onto the flange sections ;and a flexible vacuum diaphragm covering the plies, the flexible vacuum diaphragm being configured to be evacuated and compact the former device down onto the tool .
Product stream transfer device for a transfer of at least one product sub-stream (12a-d; f) and of at least one further product sub-stream (14a-d, f) into a main product stream (16a-d, f), or for a separation of a main product stream into at least one first product sub-stream and at least one further product sub-stream along a product stream transfer route (18a-b, e-f), comprising a first side route (20a-c, e), with a plurality of transport elements (22a-e) for a transport of products (24a-e) of the first product sub-stream (12a-f), comprising at least one further side route (26a-c, e) with a plurality of transport elements (22a-e) for a transport of products (24a-e) of the further product sub-stream (14a-f), comprising a main route (28a-f) that is adjacent to the product stream transfer route (18a-b, e-f) for a transport of the products (24a-f) of the main product stream (16a-f), and comprising at least one product stream controlling means (40a; b; e) that is configured to insert products (24a; b) of at least one of the product sub-streams (12a; b, 14a; b) into the main product stream (16a; 6) in transfer movements (42a; b) transversely to a transport direction (44a; b) of the main product stream (16a; b) along the product stream transfer route (18a; b), or to distribute at least a partial quantity of the products of the main product stream onto the product sub-streams in transfer movements transversely to the transport direction of the main product stream along the product stream transfer route , characterised in that the transport elements (22a; c; e) of at least one side route (20a; c; e, 26a; c; e) comprise drivers (46a; c; e) which are supported along the product stream transfer route (18a-c, e) in such a way that they are movable in a direction of the transfer movement (42a; e) transversely to the transport direction of the main product stream , wherein at least partial quantities of the transport elements (22a-e) are drivable independently from one another at least along one of the side routes (20a-c, e, 26a-c, e) of the product stream transfer route (18a-c, e).
An electrochemical element for a battery, of the type comprising - a first electrode of a first polarity , - a first connection member of the first polarity , - a second electrode of a second polarity , - a second connection member of the second polarity , - an envelope comprising a first wall and a second wall , - the envelope comprising at least one first edge and at least one second edge , the first and second edges forming an enveloping geometric shape (RE) having at least one corner (C1), characterized in that the first connection member of the first polarity and the second connection member of the second polarity are arranged completely within the enveloping geometric shape (RE), in that the first connection member of the first polarity is arranged in a first corner (C1) of the enveloping geometric shape and the second connection member of the second polarity is also arranged in the first corner (C1) of the enveloping geometric shape. - a first electrode of a first polarity , - a first connection member of the first polarity , - a second electrode of a second polarity , - a second connection member of the second polarity , - an envelope comprising a first wall and a second wall , - the envelope comprising at least one first edge and at least one second edge , the first and second edges forming an enveloping geometric shape (RE) having at least one corner (C1), characterized in that the first connection member of the first polarity and the second connection member of the second polarity are arranged completely within the enveloping geometric shape (RE), in that the first connection member of the first polarity is arranged in a first corner (C1) of the enveloping geometric shape and the second connection member of the second polarity is also arranged in the first corner (C1) of the enveloping geometric shape.
A housing assembly comprising: a housing body having a bottom portion and at least one side wall connected with an outer edge of the bottom portion , wherein each of the at least one side wall and the bottom portion cooperatively define a bending angle larger than 70 degrees; and a flexible film layer disposed on a first surface of the housing body , wherein the flexible film layer has an elongation at break, measured according to GB9286-98, higher than or equal to 150%, and the first surface of the housing body comprises a surface of the bottom portion close to the flexible film layer and a surface of the at least one side wall close to the flexible film layer . a housing body having a bottom portion and at least one side wall connected with an outer edge of the bottom portion , wherein each of the at least one side wall and the bottom portion cooperatively define a bending angle larger than 70 degrees; and a flexible film layer disposed on a first surface of the housing body , wherein the flexible film layer has an elongation at break, measured according to GB9286-98, higher than or equal to 150%, and the first surface of the housing body comprises a surface of the bottom portion close to the flexible film layer and a surface of the at least one side wall close to the flexible film layer .
A driving place of a commercial or heavy vehicle comprising a driving seat (S), a steering wheel (SW) and a pedal unit (PD) rigidly connected to each other and fastened to a single floor portion (PF), wherein said floor portion (PF) is connected to a vehicle cabin (C) in a damped manner to react to road surface irregularities, characterized in that said floor portion (PF) has an edge hinged, by means of a hinge (CN), to said cabin (C) and one or more shock absorbers (BP, BP1, BP2) have a first end hinged to said floor portion (PF) and a second end, opposite to the first, hinged to a fixed point of the cabin© to damp the oscillations of said floor portion (FP) with respect to said hinge.
A compound for use in a method of lowering intraocular pressure in a human patient in need of such treatment, which comprises administering a therapeutically effective amount of a composition comprising said compound, wherein the compound is 2,2-dimethyl-propionic acid-3-[(S)-1-(1 H-imidazol-4-yl)-ethyl]-2-methyl-benzyl ester having the following structure: or its hydrates, its solvates, its crystal forms, its tautomers or a pharmaceutically acceptable salt thereof.
A compounding device for transferring materials from at least two distinct material sources to a final container , comprising: a housing , the housing defining a valve surface and a pump surface ; at least one micro valve actuation device adjacent the valve surface ; at least one macro valve actuation device adjacent the valve surface ; a micro pump located adjacent the pump surface on the housing ; and a macro pump located adjacent the pump surface on the housing , wherein the at least one micro valve actuation device operates with the micro pump to convey material from at least one of the material sources to the final container , and the at least one macro valve actuation device operates with the macro pump to convey materials from at least another one of the material sources to the final container , wherein each micro valve actuation device includes a first stepper motor , and each macro valve actuation device includes a second stepper motor , wherein each micro valve actuation device further includes a first actuator member controlled by the first stepper motor for rotating a micro valve , and each macro valve actuation device further includes a second actuator member controlled by the second stepper motor for rotating a macro valve , and wherein the rotation of the first and second stepper motors and therefore the first and second actuator members and the micro and macro valves is clockwise, counter-clockwise, or any combination of these directions. a housing , the housing defining a valve surface and a pump surface ; at least one micro valve actuation device adjacent the valve surface ; at least one macro valve actuation device adjacent the valve surface ; a micro pump located adjacent the pump surface on the housing ; and a macro pump located adjacent the pump surface on the housing , wherein the at least one micro valve actuation device operates with the micro pump to convey material from at least one of the material sources to the final container , and the at least one macro valve actuation device operates with the macro pump to convey materials from at least another one of the material sources to the final container , wherein each micro valve actuation device includes a first stepper motor , and each macro valve actuation device includes a second stepper motor , wherein each micro valve actuation device further includes a first actuator member controlled by the first stepper motor for rotating a micro valve , and each macro valve actuation device further includes a second actuator member controlled by the second stepper motor for rotating a macro valve , and wherein the rotation of the first and second stepper motors and therefore the first and second actuator members and the micro and macro valves is clockwise, counter-clockwise, or any combination of these directions.
A self-propelling cleaning robot , comprising: a main body ; a driving part configured to propel the main body; a cleaning part attached to the main body and configured to clean a cleaning area; a sensor part attached to the main body and configured to detect an obstacle ; and a control unit mounted on the main body and configured to control the driving part and the cleaning part , wherein the control unit includes a memory configured to store programs that cause the driving part and the cleaning part to operate, and a controller configured to write the programs in the memory , and read the programs from the memory , the controller being connectable with a display device and an input device , which are external devices, and in addition to performing the desired operation by selecting the programs prepared in advance, a code of the programs may be created and rewritten by programming by the user using the display device and the input devices . a main body ; a driving part configured to propel the main body; a cleaning part attached to the main body and configured to clean a cleaning area; a sensor part attached to the main body and configured to detect an obstacle ; and a control unit mounted on the main body and configured to control the driving part and the cleaning part , wherein the control unit includes a memory configured to store programs that cause the driving part and the cleaning part to operate, and a controller configured to write the programs in the memory , and read the programs from the memory , the controller being connectable with a display device and an input device , which are external devices, and in addition to performing the desired operation by selecting the programs prepared in advance, a code of the programs may be created and rewritten by programming by the user using the display device and the input devices .
An annular combustor for a gas turbine engine, comprising a diffuser section ; a radially inboard liner extending circumferentially and extending longitudinally fore to aft; a radially outboard liner extending circumferentially and extending longitudinally fore to aft and circumscribing the radially inboard liner ; a bulkhead extending radially and circumferentially between a forward end of the inboard liner and a forward end of the outboard liner and in cooperation with the inboard liner and the outboard liner defining an annular combustion chamber ; a plurality of primary combustion air admission nozzles downstream of and operatively coupled to the diffuser section , and opening through the bulkhead for admitting air into a forward region of the annular combustion chamber , each air admission nozzle of the plurality of air admission nozzles including a throat having a radially variable flow area geometry; and a plurality of first dilution air admission holes formed in the outboard annular liner at a location downstream of the forward region of the combustion chamber and arranged in at least one circumferential row at circumferentially spaced intervals, a plurality of second dilution air admission holes formed in the inboard annular liner at a location downstream of the forward region of the combustion chamber and arranged in at least one circumferential row at circumferentially spaced intervals, a plurality of plugs having a conically shaped outside surface, each plug of the plurality of plugs operatively associated with a corresponding dilution air admission hole of the plurality of first or second dilution air admission holes to adjust a variable flow area geometry of the plurality of first and second dilution air admission holes .
A nutrition supplement for use in the treatment of cancer in a subject, wherein the treatment comprises (i) administering the nutrition supplement, wherein the nutrition supplement comprises soybean oil, phospholipids, and glycerol; and (ii) administering a nanotherapeutic agent to the subject, wherein the nanotherapeutic agent comprises a therapeutic agent and a nanocarrier, wherein the nanotherapeutic agent comprises a platinum-containing chemotherapeutic agent, wherein the chemotherapeutic agent is the platinum-containing chemotherapeutic agent dichloro(1,2-diaminocyclohexane)platinum(II) (DACHPt), wherein the nanocarrier is selected from the group consisting of a liposome, a lipid-coated nanoparticle, a protein-coated nanoparticle, and a polymer-coated nanoparticle, wherein said nutrition supplement is administered to the subject about 0.1 hours to about 24 hours before the nanotherapeutic agent is administered to the subject. (i) administering the nutrition supplement, wherein the nutrition supplement comprises soybean oil, phospholipids, and glycerol; and (ii) administering a nanotherapeutic agent to the subject, wherein the nanotherapeutic agent comprises a therapeutic agent and a nanocarrier, wherein the nanotherapeutic agent comprises a platinum-containing chemotherapeutic agent, wherein the chemotherapeutic agent is the platinum-containing chemotherapeutic agent dichloro(1,2-diaminocyclohexane)platinum(II) (DACHPt), wherein the nanocarrier is selected from the group consisting of a liposome, a lipid-coated nanoparticle, a protein-coated nanoparticle, and a polymer-coated nanoparticle, wherein said nutrition supplement is administered to the subject about 0.1 hours to about 24 hours before the nanotherapeutic agent is administered to the subject.
Laminated glass , comprising an outer pane , an inner pane , at least two laminating layers , which are arranged between the outer pane and the inner pane , and at least one design element , wherein the design element is formed on a partial region of a pane side of the outer pane or the inner pane from an image-based black print with one or more print-free regions , and an opaque, non-black underlay is arranged only in a partial region of the laminated glass between the two laminating layers , which underlay is placed under the print-free region(s) of the design element , and wherein the laminating layers are present over the entire surface of the whole region of the laminated glass .
A cooker device comprising an upper plate on which electric heaters and/or gas burners are disposed, at least one skirt shaped by bending the edge portions of the upper plate , surrounding the upper plate at least partially, a lower housing on which the upper plate is assembled, and at least one connecting spring enabling the upper plate to be detachably assembled to the lower housing , having a seat resting on the lower housing , and a resilient main extension extending upwards and in an inclined manner from the seat , whose portion between the skirt and the lower housing is shaped by being bent in a V-shape, wherein at least one retainer is provided on the base of the lower housing , characterized in that the at least one retainer enables the connecting spring to be fixed to the lower housing by way of snap-fit method, and wherein at least one detent is provided on the connecting spring , extending outwards from the seat and enabling locking by engaging the retainer .
A method of preparing a cathode active material for a lithium secondary battery, the method comprising: dry coating a lithium metal oxide represented by Formula 1 and having a layered structure with at least one coating material selected from a metal oxide and a fluorine-containing compound by stirring the lithium metal oxide and the at least one coating material at about 8,000 rpm to about 20,000 rpm, the stirring is performed for about 10 seconds to about 60 seconds; and thermally treating at about 800°C to 1,000°C a resulting powder from the coating step to form a lithium-containing compound represented by Formula 2 on the surface or inside of the lithium metal oxide: [Formula 1] Li 1-x Ni y M 1-y O 2-z , wherein, in Formula 1, M is at least one element selected from Co and Mn; 0 ≤ x ≤ 0.05; 0.6 ≤ y ≤ 1; and 0 ≤ z ≤ 0.05, and [Formula 2] Li 2-x M'O 3-y wherein, in Formula 2, M' is at least one element selected from Mg, Al, Ca, Ti, V, Cr, Fe, Cu, Zn, Ga, Sr, Y, Zr, Nb, Mo, Ru, and F; 0 ≤ x ≤ 1; and 0 ≤ y ≤ 3. dry coating a lithium metal oxide represented by Formula 1 and having a layered structure with at least one coating material selected from a metal oxide and a fluorine-containing compound by stirring the lithium metal oxide and the at least one coating material at about 8,000 rpm to about 20,000 rpm, the stirring is performed for about 10 seconds to about 60 seconds; and thermally treating at about 800°C to 1,000°C a resulting powder from the coating step to form a lithium-containing compound represented by Formula 2 on the surface or inside of the lithium metal oxide: [Formula 1] Li 1-x Ni y M 1-y O 2-z , wherein, in Formula 1, M is at least one element selected from Co and Mn; 0 ≤ x ≤ 0.05; 0.6 ≤ y ≤ 1; and 0 ≤ z ≤ 0.05, and [Formula 2] Li 2-x M'O 3-y wherein, in Formula 2, M' is at least one element selected from Mg, Al, Ca, Ti, V, Cr, Fe, Cu, Zn, Ga, Sr, Y, Zr, Nb, Mo, Ru, and F; 0 ≤ x ≤ 1; and 0 ≤ y ≤ 3.
An apparatus, comprising: means for transmitting short control signaling to at least one user equipment for licensed assisted access, where the short control signaling has a maximum duty cycle of 5% within an observation period of 50ms, wherein the short control signaling comprises a reference signal part, wherein the reference signal part comprises signals present in discovery signals including at least one of primary synchronization signal, secondary synchronization signal, or cell-specific reference signal, and wherein the reference signal part comprises reference signals that allow the at least one user equipment to perform at least one of cell search, synchronization, fine time/frequency tracking, radio resource management measurements, radio link monitoring, or channel state information reporting. means for transmitting short control signaling to at least one user equipment for licensed assisted access, where the short control signaling has a maximum duty cycle of 5% within an observation period of 50ms, wherein the short control signaling comprises a reference signal part, wherein the reference signal part comprises signals present in discovery signals including at least one of primary synchronization signal, secondary synchronization signal, or cell-specific reference signal, and wherein the reference signal part comprises reference signals that allow the at least one user equipment to perform at least one of cell search, synchronization, fine time/frequency tracking, radio resource management measurements, radio link monitoring, or channel state information reporting.