mhurhangee/patent-ind-claim-en huggingface dataset:
A heat transfer plate comprising an upper end portion , a center portion and a lower end portion arranged in succession along a longitudinal center axis (LP) of the heat transfer plate , the upper end portion comprising a first and a second porthole and an upper distribution area provided with an upper distribution corrugation pattern, the lower end portion comprising a third and a fourth porthole and a lower distribution area provided with a lower distribution corrugation pattern, and the center portion comprising a heat transfer area provided with a heat transfer corrugation pattern differing from the upper and lower distribution corrugation patterns, wherein the heat transfer plate further comprises, on a front side thereof , a front gasket groove including an annular front groove part extending around the heat transfer area , the upper and lower distribution areas , and the first and third portholes , a second ring groove part enclosing the second porthole and a fourth ring groove part enclosing the fourth porthole , wherein the upper end portion further comprises a second adiabatic area extending between the annular front groove part and the second ring groove part and the lower end portion further comprises a fourth adiabatic area extending between the annular front groove part and the fourth ring groove part , an upper front groove portion of the front gasket groove extending between the second porthole and the upper distribution area and comprising a bottom , and a lower front groove portion of the front gasket groove extending between the fourth porthole and the lower distribution area and comprising a bottom , characterized in that the bottom of the upper front groove portion is inclined such that a depth of the front gasket groove , within the upper front groove portion , increases in a direction towards the second adiabatic area , and the bottom of the lower front groove portion is inclined such that a depth of the front gasket groove , within the lower front groove portion , increases in a direction towards the fourth adiabatic area .
A humidification system for use with low-flow oxygen therapy, the humidification system comprising: a tube comprising a water-vapor-permeable (WVP) membrane; and a reservoir, wherein the reservoir receives a volume of liquid water, and wherein most of the tube is contained in the reservoir, and wherein the reservoir is physically adapted to decrease a volume thereof in response to liquid water evaporating therefrom into the tube. a tube comprising a water-vapor-permeable (WVP) membrane; and a reservoir, wherein the reservoir receives a volume of liquid water, and
A process for producing a surface-reacted calcium carbonate comprising the steps of: a) providing a calcium carbonate-comprising material, b) providing at least one H 3 O + ion donor, c) providing at least one water-soluble metal cation source, and d) treating the calcium carbonate-comprising material of step a) with the at least one H 3 O + ion donor of step b) and carbon dioxide in an aqueous medium to form an aqueous suspension of surface-reacted calcium carbonate, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source, wherein the at least one water-soluble metal cation source of step c) is added during step d), and wherein the at least one water-soluble metal cation source is selected from the group consisting of copper nitrate, copper sulphate, copper acetate, copper chloride, copper bromide, copper iodide, zinc nitrate, zinc sulphate, zinc acetate, zinc chloride, zinc bromide, zinc iodide, hydrates thereof, and mixtures thereof. a) providing a calcium carbonate-comprising material, b) providing at least one H 3 O + ion donor, c) providing at least one water-soluble metal cation source, and d) treating the calcium carbonate-comprising material of step a) with the at least one H 3 O + ion donor of step b) and carbon dioxide in an aqueous medium to form an aqueous suspension of surface-reacted calcium carbonate, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source, wherein the at least one water-soluble metal cation source of step c) is added during step d), and wherein the at least one water-soluble metal cation source is selected from the group consisting of copper nitrate, copper sulphate, copper acetate, copper chloride, copper bromide, copper iodide, zinc nitrate, zinc sulphate, zinc acetate, zinc chloride, zinc bromide, zinc iodide, hydrates thereof, and mixtures thereof.
A quantum dot device , comprising an anode and a cathode facing each other, a quantum dot layer between the anode and the cathode , a hole transport layer between the anode and the quantum dot layer , the hole transport layer being configured to increase a hole transporting property from the anode to the quantum dot layer , an inorganic electron transport layer between the cathode and the quantum dot layer , the inorganic electron transport layer being configured to increase an electron transporting property from the cathode to the quantum dot layer , and an inorganic electron controlling layer between the cathode and the quantum dot layer , the inorganic electron controlling layer being configured to decrease an electron transporting property from the cathode to the quantum dot layer , wherein the inorganic electron transport layer comprises a first inorganic material, and the inorganic electron controlling layer comprises a second inorganic material that is different from the first inorganic material, wherein the second inorganic material comprises gallium oxide, and the second inorganic material comprises a nanoparticle having an average particle diameter of less than or equal to 10 nanometers. an anode and a cathode facing each other, a quantum dot layer between the anode and the cathode , a hole transport layer between the anode and the quantum dot layer , the hole transport layer being configured to increase a hole transporting property from the anode to the quantum dot layer , an inorganic electron transport layer between the cathode and the quantum dot layer , the inorganic electron transport layer being configured to increase an electron transporting property from the cathode to the quantum dot layer , and an inorganic electron controlling layer between the cathode and the quantum dot layer , the inorganic electron controlling layer being configured to decrease an electron transporting property from the cathode to the quantum dot layer , wherein the inorganic electron transport layer comprises a first inorganic material, and the inorganic electron controlling layer comprises a second inorganic material that is different from the first inorganic material, wherein the second inorganic material comprises gallium oxide, and the second inorganic material comprises a nanoparticle having an average particle diameter of less than or equal to 10 nanometers.
An insulating floor material for being located between the hardcore layer and slab of the floor or ceiling construction, and including, in an amount of at least 20% of a mass, a loose recycled rubber crumb with a fraction from 2 mm to 20 mm, and a rest is supplied by a crumb from a plastic recyclate with the fraction up to 15 mm without a binder, characterized in that said insulating floor material also comprises a closed bag in which said rubber crumb and said plastic crumb are placed in, whereby a material of the bag is part of a resulting insulating layer and malleably delimits an outer shape of the insulating floor material after its placement on an insulated surface, whereby the bag has openings which are smaller than the lower fraction of the rubber crumb inside the bag . also comprises a closed bag in which said rubber crumb and said plastic crumb are placed in, whereby a material of the bag is part of a resulting insulating layer and malleably delimits an outer shape of the insulating floor material after its placement on an insulated surface, whereby the bag has openings which are smaller than the lower fraction of the rubber crumb inside the bag .
A compound which is {1-{1-[3-Fluoro-2-(trifluoromethyl)isonicotinoyl]piperidin-4-yl}-3-[4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1H-pyrazol-1-yl]azetidin-3-yl}acetonitrile, or a pharmaceutically acceptable salt thereof, for use in treating a JAK-associated disease selected from: (a) ulcerative colitis; (b) chronic obstructive pulmonary disease (COPD); (c) pemphigus vulgaris; (d) asthma; (e) systemic lupus erythematosus; (f) scleroderma; (g) ankylosing spondylitis; (h) acute lymphoblastic leukemia (ALL); (i) acute myelogenous leukemia (AML); (j) cutaneous T-cell lymphoma (CTCL); (k) mycosis fungoides; (l) colon cancer; (m) colorectal cancer; (n) post-essential thrombocythemia myelofibrosis (Post-ET MF); (o) post polycythemia vera myelofibrosis (Post-PV MF); (p) acneiform rash; (q) sarcoidosis; (r) rhinitis; (s) sinusitis; (t) blepharitis; (u) conjunctivitis; (v) uveitis; (w) scleritis; (x) iritis; (y) cachexia; (z) systemic inflammatory response syndrome (SIRS); and (aa) septic shock. (a) ulcerative colitis; (b) chronic obstructive pulmonary disease (COPD); (c) pemphigus vulgaris; (d) asthma; (e) systemic lupus erythematosus; (f) scleroderma; (g) ankylosing spondylitis; (h) acute lymphoblastic leukemia (ALL); (i) acute myelogenous leukemia (AML); (j) cutaneous T-cell lymphoma (CTCL); (k) mycosis fungoides; (l) colon cancer; (m) colorectal cancer; (n) post-essential thrombocythemia myelofibrosis (Post-ET MF); (o) post polycythemia vera myelofibrosis (Post-PV MF); (p) acneiform rash; (q) sarcoidosis; (r) rhinitis; (s) sinusitis; (t) blepharitis; (u) conjunctivitis; (v) uveitis; (w) scleritis; (x) iritis; (y) cachexia; (z) systemic inflammatory response syndrome (SIRS); and (aa) septic shock.
A method for installing a wind turbine blade on a wind turbine hub comprising: hoisting a blade towards the hub ; bringing the blade and the hub into contact through an adaptable resilient body such that the adaptable resilient body is compressed between the blade and the hub ; reducing a dimension of the adaptable resilient body such that the blade approaches the hub in a controlled fashion; and mounting the blade to the hub . hoisting a blade towards the hub ; bringing the blade and the hub into contact through an adaptable resilient body such that the adaptable resilient body is compressed between the blade and the hub ; reducing a dimension of the adaptable resilient body such that the blade approaches the hub in a controlled fashion; and mounting the blade to the hub .
A method of processing code, the method comprising: obtaining a portion of the code that includes a first work group having a first work item, a second work group having a second work item, and attributes containing developer supplied criteria, the code and attributes describing execution parameters for a graphics processing unit GPU, and each of the first and second work items having an execution overhead; analyzing the portion of code and attributes with at least one of a compiler or driver; generating an altered code portion based on capabilities of the GPU by merging the first work group with the second work group to form a single merged work group that includes the first and second work items; coalescing the first and second work items of the altered code portion to form an altered and coalesced code portion, the altered and coalesced code portion comprising manipulation code to automatically adjust, at run-time, code elements affected by the coalescing, wherein a cost of executing the manipulation code is less than a cost of executing eliminated execution overhead resulting from the coalescing; compiling the altered code portion; and loading the compiled altered code portion for execution on the GPU. obtaining a portion of the code that includes a first work group having a first work item, a second work group having a second work item, and attributes containing developer supplied criteria, the code and attributes describing execution parameters for a graphics processing unit GPU, and each of the first and second work items having an execution overhead; analyzing the portion of code and attributes with at least one of a compiler or driver; generating an altered code portion based on capabilities of the GPU by merging the first work group with the second work group to form a single merged work group that includes the first and second work items; coalescing the first and second work items of the altered code portion to form an altered and coalesced code portion, the altered and coalesced code portion comprising manipulation code to automatically adjust, at run-time, code elements affected by the coalescing, wherein a cost of executing the manipulation code is less than a cost of executing eliminated execution overhead resulting from the coalescing; compiling the altered code portion; and loading the compiled altered code portion for execution on the GPU.
Lens structure for placement over a light source and for attachment to a circuit board around the light source, the lens structure comprising: a lens body , comprising: a circuit board engagement portion for being placed towards the circuit board, a recess provided in the circuit board engagement portion for receiving the light source upon attachment of the lens structure to the circuit board, a light entry surface around the recess, and a light exit surface distal from the circuit board engagement portion; and an attachment structure , characterized in that the attachment structure is partially molded into the lens body and partially extends from the lens body for attaching the lens structure to the circuit board, wherein the attachment structure comprises a plurality of legs extending into and out of the lens body , and wherein the attachment structure comprises a support element within the lens body , with the plurality of legs extending from the support element, and wherein the support element is a ring-shaped support element or a star-shaped support element . a lens body , comprising: a circuit board engagement portion for being placed towards the circuit board, a recess provided in the circuit board engagement portion for receiving the light source upon attachment of the lens structure to the circuit board, a light entry surface around the recess, and a light exit surface distal from the circuit board engagement portion; and a circuit board engagement portion for being placed towards the circuit board, a recess provided in the circuit board engagement portion for receiving the light source upon attachment of the lens structure to the circuit board, a light entry surface around the recess, and a light exit surface distal from the circuit board engagement portion; and an attachment structure , characterized in that the attachment structure is partially molded into the lens body and partially extends from the lens body for attaching the lens structure to the circuit board, wherein the attachment structure comprises a plurality of legs extending into and out of the lens body , and wherein the attachment structure comprises a support element within the lens body , with the plurality of legs extending from the support element, and wherein the support element is a ring-shaped support element or a star-shaped support element .
A method of operating a superconducting rotary electrical machine comprising a two-part rotor having an inner rotor and an outer rotor, both of the inner and outer rotors configured to receive a flow of coolant and the inner rotor including at least one superconducting component requiring cooling for its operation; and, a cooling system configurable to provide coolant to the two-part rotor in a first mode and a second mode, the method comprising and characterised in that : a) during cool-down of the superconducting component, operating the cooling system in the first mode in which the cooling system is configured to provide coolant to the outer rotor and inner rotor; and b) during operation of the machine once the superconducting component has attained a predetermined temperature, operating the cooling system in the second mode in which the cooling system is configured to provide coolant to the inner rotor only. a) during cool-down of the superconducting component, operating the cooling system in the first mode in which the cooling system is configured to provide coolant to the outer rotor and inner rotor; and b) during operation of the machine once the superconducting component has attained a predetermined temperature, operating the cooling system in the second mode in which the cooling system is configured to provide coolant to the inner rotor only.
A sunshade umbrella capable of rotating left and right, comprising: a base ; a vertical column , mounted in the base ; a slidable handle sleeved on the vertical column ; an umbrella frame ; a transverse rod having a lower end connected to the slidable handle , and an upper end rotatably connected to a top portion of the umbrella frame ; and a drawing rod having a front end and a rear end, characterized in that , the rear end of the drawing rod is rotatably connected to a top portion of the vertical column , and the front end of the drawing rod is rotatably connected to a middle portion of the transverse rod ; wherein the sunshade umbrella further comprises a rotating mechanism for controlling an umbrella fabric to rotate left and right, and an adjustment handle for driving the rotating mechanism to rotate; the umbrella frame has a lengthened rib with a bottom end and a top end, the bottom end of the lengthened rib is connected to the rotating mechanism; the rotating mechanism comprises an upper clutch tooth mechanism and a lower clutch tooth mechanism ; the adjustment handle is disposed on the lower clutch tooth mechanism ; and the upper clutch tooth mechanism and the lower clutch tooth mechanism are respectively disposed at the upper end and the lower end of the transverse rod , and are connected with each other through a connecting rod . a base ; a vertical column , mounted in the base ; a slidable handle sleeved on the vertical column ; an umbrella frame ; a transverse rod having a lower end connected to the slidable handle , and an upper end rotatably connected to a top portion of the umbrella frame ; and a drawing rod having a front end and a rear end, characterized in that , the rear end of the drawing rod is rotatably connected to a top portion of the vertical column , and the front end of the drawing rod is rotatably connected to a middle portion of the transverse rod ; wherein the sunshade umbrella further comprises a rotating mechanism for controlling an umbrella fabric to rotate left and right, and an adjustment handle for driving the rotating mechanism to rotate; the umbrella frame has a lengthened rib with a bottom end and a top end, the bottom end of the lengthened rib is connected to the rotating mechanism; the rotating mechanism comprises an upper clutch tooth mechanism and a lower clutch tooth mechanism ; the adjustment handle is disposed on the lower clutch tooth mechanism ; and the upper clutch tooth mechanism and the lower clutch tooth mechanism are respectively disposed at the upper end and the lower end of the transverse rod , and are connected with each other through a connecting rod .
A cap for an endoscope fluid container, the cap , comprising an inlet and an outlet , wherein the cap further comprises separating means (7,) for separating liquid or solid particles from gas passing through said inlet into a container to which the cap is attached, wherein said separating means is placed in, on, or adjacent a first upper wall of the cap , characterized in that said separating means is positioned adjacent the inlet and spaced from the inlet , and in that the cap further comprises an annular recess in the inner surface of the first upper wall of the cap thereby increasing the cross-sectional area of the fluid flow path between the inlet and said separating means in the direction of fluid flow from the inlet to said separating means.
A surface-modified metal whose surface is at least partially provided with a treatment layer having a thickness of 50 to 800 nm, the treatment layer being formed by treating a surface of a metal with a silane coupling agent, followed by adsorbing a hydrogen abstraction type photopolymerization initiator onto the surface and then polymerizing a monomer, wherein the photopolymerization initiator is a thioxanthone compound and the monomer is 2-(meth)acryloyloxyethyl phosphorylcholine or a compound represented by the following formula (I): wherein A represents an oxygen atom or NH; B represents a C 1 -C 4 alkylene group; R 101 represents a hydrogen atom or a methyl group; R 102 , R 103 , and R 104 are the same as or different from one another and each represent a C 1 -C 4 alkyl group; and X - represents a halogen ion.
LED converter , comprising: - an actively switched power factor correction, PFC, circuit outputting a DC voltage which is basis for a DC supply voltage of a switched DC/DC converter of the LED converter , configured to supply an LED load with a feedback-controlled output current said DC/DC converter being configured to operate with frequency control, and a controller , characterized by - means for sampling configured to sample a value representing the output current with a sampling frequency, and to supply it to a feedback control unit of the LED converter which is configured to issue a control signal for at least one switch of the switched DC/DC converter , wherein the PFC circuit and the switched DC/DC converter are designed such that a difference between a switching frequency of the DC/DC switched converter and the sampling frequency of the means for sampling is higher than a first preset value, wherein the controller is configured to control the output DC voltage of the PFC circuit such that an artificial ripple, e.g. a triangular ripple, is dynamically added to the output DC voltage providing a varying output DC voltage, and the controller is further configured to indirectly modify the switching frequency due to the varying output DC voltage, such that the switching frequency of said DC/DC converter is varied. - an actively switched power factor correction, PFC, circuit outputting a DC voltage which is basis for a DC supply voltage of a switched DC/DC converter of the LED converter , configured to supply an LED load with a feedback-controlled output current said DC/DC converter being configured to operate with frequency control, and a controller , characterized by - means for sampling configured to sample a value representing the output current with a sampling frequency, and to supply it to a feedback control unit of the LED converter which is configured to issue a control signal for at least one switch of the switched DC/DC converter , wherein the PFC circuit and the switched DC/DC converter are designed such that a difference between a switching frequency of the DC/DC switched converter and the sampling frequency of the means for sampling is higher than a first preset value,