mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing the energy of a building, comprising one or more occupants likely to be present therein, each determining a thermal comfort desire for a given period, said method comprising a step for determining an overall thermal comfort parameter which comprises the determination of an overall thermal sensation value Si (k) for a given period k on the basis of the thermal comfort desire of each occupant present in the area of the building in the given period, comprising performing the average of the temperatures desired by the different individuals present in an area i at an instant k, this global thermal comfort parameter being used to manage the energy on the basis of the comfort desires of the only occupants present in the building, and characterized in that the step for determining the global thermal comfort parameter comprises the determination of an overall thermal sensation value Si (k) for a given period k, which comprises the determination for each potential occupant j of a desired maximum ambient temperature (T max j (k)), of a desired minimum ambient temperature (T min j (k)) and of a desired ideal ambient temperature (T opt j (k)) for each period k, and in that it comprises a calculation of a desired average maximum ambient temperature (T max i (k)), of a desired average minimum ambient temperature (T min i (k)) and of a desired average ideal ambient temperature (T opt i (k)) for each area i of the building and for each period k according to the following equations: T max i k = ∑ j = 1 J T max j k ∗ o i , j , k ∑ i = 1 J o i , j , k T min i k = ∑ j = 1 J T min j k ∗ o i , j , k ∑ i = 1 J o i , j , k T opt i k = ∑ j = 1 J T opt j k ∗ o i , j , k ∑ i = 1 J o i , j , k Where o i,j,k is an individual occupancy parameter representing the information concerning the presence or not of an individual j in an area i for a period k, and in that it comprises the calculation of the global thermal sensation value S i (k) for each area i of the building and for each period k by the following equations: S i k = T opt i k − Ti k T opt i k − T min i k if T i k ≤ T opt i k or S i k = − T opt i k + Ti k − T opt i k + T max i k if T i k > T opt i k and characterized in that the management of the energy of an area k of the building comprises the minimization of the following sum: ∑ i = 1 I ∑ k = 1 K Si k O i , k . Oi,k being a binary global occupancy parameter representing the presence or not of at least one occupant in an area i of the building for a given period k, which takes a zero value in the case of absence and is equal to one when there is at least one occupant.
A crop baling implement comprising: a frame ; a baling chamber attached to the frame and configured to form crop material into a square bale extending along a central longitudinal axis ; an orbital support attached to the frame rearward of the baling chamber and rotatable about a wrap axis , the orbital support defining an open central region and positioned to receive the bale from the baling chamber and pass the bale through the open central region of the orbital support ; a wrap roller attached to and moveable with the orbital support , wherein the wrap roller is configured to support a roll of wrap material ; a drive coupled to the orbital support and operable to rotate the orbital support and the wrap roller about the wrap axis to wrap the wrap material around the bale as the bale moves through the open central region of the orbital support ; and a fixed support attached to the frame and rotatably supporting the orbital support , characterized in that the crop baling implement further comprising a pivotal connection interconnecting the frame and the fixed support , wherein the pivotal connection defines a transverse axis with the fixed support rotatable about the transverse axis relative to the frame . a frame ; a baling chamber attached to the frame and configured to form crop material into a square bale extending along a central longitudinal axis ; an orbital support attached to the frame rearward of the baling chamber and rotatable about a wrap axis , the orbital support defining an open central region and positioned to receive the bale from the baling chamber and pass the bale through the open central region of the orbital support ; a wrap roller attached to and moveable with the orbital support , wherein the wrap roller is configured to support a roll of wrap material ; a drive coupled to the orbital support and operable to rotate the orbital support and the wrap roller about the wrap axis to wrap the wrap material around the bale as the bale moves through the open central region of the orbital support ; and a fixed support attached to the frame and rotatably supporting the orbital support , characterized in that the crop baling implement further comprising a pivotal connection interconnecting the frame and the fixed support , wherein the pivotal connection defines a transverse axis with the fixed support rotatable about the transverse axis relative to the frame .
Method of manufacturing a connection assembly by plastically deforming a connection device about a conductor and thus moving two faces of the connection device into a position adjacent to each other, and by then materially bonding the two adjacent faces to each other, wherein sealing material for sealing the connection assembly in a finished state is applied during manufacturing, wherein the sealing material is applied to cut-out blanks of a metal strip for the connection devices before the connection devices are fully deformed, characterized in that the sealing material is applied as a foam , the sealing material being heated during the production process.
A processor comprising: an instruction unit to receive a first instruction, wherein the first instruction is to initialize a secure enclave, and wherein the first instruction also includes setting a functionality specific attribute bit for the secure enclave; and an execution unit to execute the first instruction, wherein execution of the first instruction includes verifying that a signature structure key matches a digital key embedded in the processor to permit software running inside the secure enclave to use software or hardware to perform a function outside of the secure enclave; and wherein the instruction unit is also to receive a second instruction from within the secure enclave, and the execution unit is to execute the second instruction, wherein execution of the second instruction includes providing a functionality specific key if the functionality specific attribute bit is set. an instruction unit to receive a first instruction, wherein the first instruction is to initialize a secure enclave, and wherein the first instruction also includes setting a functionality specific attribute bit for the secure enclave; and an execution unit to execute the first instruction, wherein execution of the first instruction includes verifying that a signature structure key matches a digital key embedded in the processor to permit software running inside the secure enclave to use software or hardware to perform a function outside of the secure enclave; and wherein the instruction unit is also to receive a second instruction from within the secure enclave, and the execution unit is to execute the second instruction, wherein execution of the second instruction includes providing a functionality specific key if the functionality specific attribute bit is set.
A wearable device wearable on an eyeball, comprising: a power generating unit configured to generate electric power by chemical reaction with a substance supplied from an outside; and a power managing unit configured to supply electric power obtained in the power generating unit to each part, wherein the power generating unit generates electric power by chemical reaction with the substance contained in a secretion or a body fluid of a user wearing the wearable device , the wearable device characterized by an electricity storage unit configured to store electric power obtained in the power generating unit , wherein the power generating unit is located on a back surface of an eyelid of the user, or a surface of a tissue around an eye of the user when the wearable device is worn on the user, and wherein the power generating unit is provided on a film attachable to and detachable from the wearable device . a power generating unit configured to generate electric power by chemical reaction with a substance supplied from an outside; and a power managing unit configured to supply electric power obtained in the power generating unit to each part, wherein the power generating unit generates electric power by chemical reaction with the substance contained in a secretion or a body fluid of a user wearing the wearable device , the wearable device characterized by an electricity storage unit configured to store electric power obtained in the power generating unit , wherein the power generating unit is located on a back surface of an eyelid of the user, or a surface of a tissue around an eye of the user when the wearable device is worn on the user, and wherein the power generating unit is provided on a film attachable to and detachable from the wearable device .
Connecting element for a piece of furniture for connecting a first furniture component , for example a side wall, to a second furniture component extending at an angle to the first furniture component , for example a shelf support or a shelf, without additional material fastening means and without additional fastening means, comprising - a first functional section for a first latching device which, in the assembled state, forms a first form fit of the connecting element with the first furniture component , - a second functional section for a second latching device which, in the assembled state, forms a second form fit of the connecting element with the second furniture component , - a receiving region , in which a section of the second furniture component is received in the assembled state, and - a third functional section for a third latching device which, in the assembled state, forms a third form fit of the connecting element with a cladding element which covers the receiving region at least partially, preferably completely on a visible side of the piece of furniture, and/or a fourth functional section for a fourth latching device which, in the assembled state, fixes a back wall of the piece of furniture, wherein the connecting element is integrally formed and, in particular, is made of plastic. - a first functional section for a first latching device which, in the assembled state, forms a first form fit of the connecting element with the first furniture component , - a second functional section for a second latching device which, in the assembled state, forms a second form fit of the connecting element with the second furniture component , - a receiving region , in which a section of the second furniture component is received in the assembled state, and - a third functional section for a third latching device which, in the assembled state, forms a third form fit of the connecting element with a cladding element which covers the receiving region at least partially, preferably completely on a visible side of the piece of furniture, and/or a fourth functional section for a fourth latching device which, in the assembled state, fixes a back wall of the piece of furniture, wherein the connecting element is integrally formed and, in particular, is made of plastic.
A magnetic toy track block for a mobile object comprising a magnetic element for attracting a magnet, wherein the magnetic element is provided on a surface of a block-shaped element (1, B1; 3,33,125; 4, B5; 6, B2, B3; 7) having at least one pair of projecting parts and recessed parts shaped so as to be capable of being joined together and rotating around the joining direction, wherein the block-shaped element is capable of being substantially continuous when a plurality of the block-shaped elements is joined together by the projecting and recessed parts, characterized in that a mating groove facing a joining direction of the block-shaped element is formed in a wall of one of the projecting part and the recessed part, and a mating projection that mates with the mating groove is formed in the other part; when joined block-shaped elements are pulled in an unlocking direction in an opposite direction from the joining direction, the mating projection latches onto a front end of the mating groove , thereby preventing disconnection; and, when joined block-shaped elements are rotated, the mating projection surmounts a side wall of the mating groove and dislodges therefrom so that the mating projection does not latch onto the front end of the mating groove , thereby enabling disconnection.
A display device comprising: a flexible display panel ; a frame adjacent to the display panel ; a panel roller coupled to the frame , the display panel being wound around or unwound from the panel roller ; a first foldable link having one end pivotably connected to the frame and the other end pivotably connected adjacent to a lower side of the display panel unwound from the panel roller ; a second foldable link having one end pivotably connected to the frame and the other end pivotably connected adjacent to the lower side of the display panel unwound from the panel roller , the second foldable link positioned opposite to the first foldable link ; a motor (M) mounted to the frame between the first foldable link and the second foldable link ; a first gear box mounted to the frame adjacent to the first foldable link , the first gear box having a first link gear configured to rotate with a pivot shaft of the one end of the first foldable link and a first worm gear engaged with the first link gear (3 10a); a second gear box mounted to the frame adjacent to the second foldable link , the second gear box having a second link gear configured to rotate with a pivot shaft of the one end of the second foldable link and a second worm gear engaged with the second first link gear ; and a driving shaft configured to transmit power provided by the motor (M) to the first gear of the first gear box and to the second gear of the second gear box , the first worm gear and the second worm gear being configured to rotate in a same direction with respect to a rotational direction of the driving shaft . a flexible display panel ; a frame adjacent to the display panel ; a panel roller coupled to the frame , the display panel being wound around or unwound from the panel roller ; a first foldable link having one end pivotably connected to the frame and the other end pivotably connected adjacent to a lower side of the display panel unwound from the panel roller ; a second foldable link having one end pivotably connected to the frame and the other end pivotably connected adjacent to the lower side of the display panel unwound from the panel roller , the second foldable link positioned opposite to the first foldable link ; a motor (M) mounted to the frame between the first foldable link and the second foldable link ; a first gear box mounted to the frame adjacent to the first foldable link , the first gear box having a first link gear configured to rotate with a pivot shaft of the one end of the first foldable link and a first worm gear engaged with the first link gear (3 10a); a second gear box mounted to the frame adjacent to the second foldable link , the second gear box having a second link gear configured to rotate with a pivot shaft of the one end of the second foldable link and a second worm gear engaged with the second first link gear ; and a driving shaft configured to transmit power provided by the motor (M) to the first gear of the first gear box and to the second gear of the second gear box , the first worm gear and the second worm gear being configured to rotate in a same direction with respect to a rotational direction of the driving shaft .
A medical device comprising: a substrate having an exposed surface ; and a titanium texture over at least part of the exposed surface , the texture comprising a plurality of nanofeatures applied thereto, the texture having a first particle size at a first location on the exposed surface , a second particle size , different from the first size, at a second location on the exposed surface , characterized in that the second particle size is selected to inhibit bacterial adhesion and/or growth on the surface and has a size range is between 0.01 nanometers and 1,000 nanometers. a substrate having an exposed surface ; and a titanium texture over at least part of the exposed surface , the texture comprising a plurality of nanofeatures applied thereto, the texture having a first particle size at a first location on the exposed surface , a second particle size , different from the first size, at a second location on the exposed surface , characterized in that the second particle size is selected to inhibit bacterial adhesion and/or growth on the surface and has a size range is between 0.01 nanometers and 1,000 nanometers.
A method of operating an aircraft engine having a bladed rotor coupled thereto during an icing condition, the method characterised by comprising: controlling the aircraft engine to alternatingly achieve an ice accretion rotational speed of the bladed rotor at which ice accretion on blades of the bladed rotor occurs, and a reduced rotational speed of the bladed rotor to promote ice shedding from the blades of the bladed rotor , the reduced rotational speed being lower than the ice accretion rotational speed .
A composition comprising T cells expressing a CD19 targeted CAR for use in a method of treating central nervous system lymphoma, systemic lymphoma with concurrent central nervous system involvement, central nervous system B cell leukemia or systemic B cell leukemia with concurrent central nervous system involvement, the method comprising introducing into the cerebrospinal fluid (CSF) of a patient said composition comprising an effective amount of said T cells.
A flexible display device comprising: a first flexible substrate ; a display unit on the first flexible substrate ; a thin film encapsulation layer encapsulating the display unit ; a cover layer covering the thin film encapsulation layer ; a touch screen layer on the cover layer ; and a second flexible substrate on the touch screen layer , a pad unit on the first flexible substrate and configured to transmit an electrical signal to the display unit ; wherein the touch screen layer comprises a sensing pattern unit , and a touch pad unit , the touch pad unit being electrically connected to the sensing pattern unit and configured to transmit to a driving circuit of the display unit information corresponding to capacitance changes according to touch locations; wherein the cover layer is under the sensing pattern unit , wherein a thickness of the cover layer from an upper surface of the thin film encapsulation layer to a lower surface of the touch screen layer is about 1 μ m to about 20 μ m, wherein the cover layer comprises silicon-based resin, wherein the touch pad unit and the pad unit are aligned with each other at an exterior of the thin film encapsulation layer ; and wherein the second flexible substrate is configured to exposes the pad unit on the first flexible substrate . a first flexible substrate ; a display unit on the first flexible substrate ; a thin film encapsulation layer encapsulating the display unit ; a cover layer covering the thin film encapsulation layer ; a touch screen layer on the cover layer ; and a second flexible substrate on the touch screen layer , a pad unit on the first flexible substrate and configured to transmit an electrical signal to the display unit ; wherein the touch screen layer comprises a sensing pattern unit , and a touch pad unit , the touch pad unit being electrically connected to the sensing pattern unit and configured to transmit to a driving circuit of the display unit information corresponding to capacitance changes according to touch locations; wherein the cover layer is under the sensing pattern unit , wherein a thickness of the cover layer from an upper surface of the thin film encapsulation layer to a lower surface of the touch screen layer is about 1 μ m to about 20 μ m, wherein the cover layer comprises silicon-based resin, wherein the touch pad unit and the pad unit are aligned with each other at an exterior of the thin film encapsulation layer ; and wherein the second flexible substrate is configured to exposes the pad unit on the first flexible substrate .
A combined ultrasonic atomizer, comprising a tobacco tar bin , an air inlet passage, a tobacco tar smoke outlet passage, and an atomization component, wherein the atomization component comprises a micropore atomization piece used for performing first stage oscillation atomization on tobacco tar, and a high-frequency atomization piece used for performing second stage oscillation atomization on the tobacco tar; the micropore atomization piece is communicated with a tobacco tar outlet of the tobacco tar bin by direct contact, and an ejection end of the micropore atomization piece is aligned to an atomization surface of the high-frequency atomization piece , wherein the micropore atomization piece is located above the high frequenzy atomization piece ; the air inlet passage communicates with an atomization cavity located between the micropore atomization piece and the high-frequency atomization piece , and the atomization cavity communicates with the tobacco tar smoke outlet passage; and the micropore atomization piece and the high-frequency atomization piece are horizontally provided below the tobacco tar bin , and the micropore atomization piece is located between the high-frequency atomization piece and the tobacco tar bin ; and the tobacco tar outlet of the tobacco tar bin directly communicates with the upper end face of the micropore atomization piece . a tobacco tar bin , an air inlet passage, a tobacco tar smoke outlet passage, and an atomization component, wherein the atomization component comprises a micropore atomization piece used for performing first stage oscillation atomization on tobacco tar, and a high-frequency atomization piece used for performing second stage oscillation atomization on the tobacco tar; the micropore atomization piece is communicated with a tobacco tar outlet of the tobacco tar bin by direct contact, and an ejection end of the micropore atomization piece is aligned to an atomization surface of the high-frequency atomization piece , wherein the micropore atomization piece is located above the high frequenzy atomization piece ; the air inlet passage communicates with an atomization cavity located between the micropore atomization piece and the high-frequency atomization piece , and the atomization cavity communicates with the tobacco tar smoke outlet passage; and the micropore atomization piece and the high-frequency atomization piece are horizontally provided below the tobacco tar bin , and the micropore atomization piece is located between the high-frequency atomization piece and the tobacco tar bin ; and the tobacco tar outlet of the tobacco tar bin directly communicates with the upper end face of the micropore atomization piece .
A system information transmission method, wherein the method comprises: broadcasting (S201), by a network device , a minimum system information, MSI, message, wherein the MSI message comprises identification information of at least one system information block, SIB, characterized in that the identification information of each SIB comprises an identifier of the SIB and a type indication of the SIB, the type indication of the SIB indicating that a type of the SIB is area specific system information or cell specific system information.