mhurhangee/ep-ind-claims huggingface dataset:
A deep-vein-thrombosis therapy system comprising: a control unit adapted to heat and cool a heat-transfer liquid within about 37-105°F and to provide compressed air at a pressure of at least 25 mmHg greater than ambient atmospheric pressure; a thermal-treatment blanket adapted to receive the heat-transfer liquid from the control unit and to send the heat-transfer liquid back to the control unit and adapted to receive compressed air from the control unit; two contoured foot wrap compressive-therapy treatment devices (33,35) adapted to utilize the compressed air from the control unit; a first set of connector tubes adapted to facilitate the flow of the heat-transfer liquid between the control unit and the thermal treatment blanket; and a second set of connector tubes adapted to facilitate the flow of the compressed air between the control unit and the foot compressive treatment devices, an inlet hose adapted to facilitate the flow of the compressed air between the control unit and the thermal treatment blanket; wherein the control unit is programmed to provide compressed air for the thermal-treatment blanket with an inflation time in the order of 8 seconds and for the compressive-therapy treatment devices in the order of 9 seconds. a control unit adapted to heat and cool a heat-transfer liquid within about 37-105°F and to provide compressed air at a pressure of at least 25 mmHg greater than ambient atmospheric pressure; a thermal-treatment blanket adapted to receive the heat-transfer liquid from the control unit and to send the heat-transfer liquid back to the control unit and adapted to receive compressed air from the control unit; two contoured foot wrap compressive-therapy treatment devices (33,35) adapted to utilize the compressed air from the control unit; a first set of connector tubes adapted to facilitate the flow of the heat-transfer liquid between the control unit and the thermal treatment blanket; and a second set of connector tubes adapted to facilitate the flow of the compressed air between the control unit and the foot compressive treatment devices, an inlet hose adapted to facilitate the flow of the compressed air between the control unit and the thermal treatment blanket; wherein the control unit is programmed to provide compressed air for the thermal-treatment blanket with an inflation time in the order of 8 seconds and for the compressive-therapy treatment devices in the order of 9 seconds.
A computing device comprising a clamshell design, comprising: a main base chassis and a main display chassis for providing structural support and component placement positions; and components mounted in defined positions; wherein the main display chassis comprises: a top surface of the clamshell when closed (A Cover); and wherein the main base chassis comprises: a bottom surface of the clamshell when closed (D cover); and wherein the computing device further comprises: a palmrest arranged in the main base chassis; a display arranged in the main display chassis; characterized in that: the components are mounted in different positions predetermined by their system function; the computing device further comprises one or more rechargeable batteries placed under the palmrest; and palmrest; and wherein the top surface of the A cover closes behind and in plane with the top of the palmrest arranged in the main base chassis, thereby separating the one or more rechargeable batteries and the display into two different stacks; wherein the palmrest comprises a left hand palmrest and a right hand palmrest and wherein the one or more rechargeable batteries comprise a first battery pack positioned under the left hand palmrest and another battery pack, identical in shape and dimensions to the first battery pack but inverted, positioned under the right hand palmrest. a main base chassis and a main display chassis for providing structural support and component placement positions; and components mounted in defined positions; wherein the main display chassis comprises: a top surface of the clamshell when closed (A Cover); and wherein the main base chassis comprises: a bottom surface of the clamshell when closed (D cover); and wherein the computing device further comprises: a palmrest arranged in the main base chassis; a display arranged in the main display chassis; a palmrest arranged in the main base chassis; a display arranged in the main display chassis; the components are mounted in different positions predetermined by their system function; the computing device further comprises one or more rechargeable batteries placed under the palmrest; and palmrest; and wherein the top surface of the A cover closes behind and in plane with the top of the palmrest arranged in the main base chassis, thereby separating the one or more rechargeable batteries and the display into two different stacks; wherein the palmrest comprises a left hand palmrest and a right hand palmrest and wherein the one or more rechargeable batteries comprise a first battery pack positioned under the left hand palmrest and another battery pack, identical in shape and dimensions to the first battery pack but inverted, positioned under the right hand palmrest.
A liquid refill container for refilling a liquid discharge apparatus with liquid, the liquid refill container comprising: a liquid storage portion made of a metal and configured to contain liquid; a pouring portion removeably connected to the liquid storage portion and having an outlet for pouring the liquid; and a cap portion removeably attached to the pouring portion and covering the outlet, the liquid refill container being characterized in that the pouring portion and the liquid storage portion are in the same color system in an CIE color specification system, and the cap portion is in a color system in the CIE color specification system that is different from the color system in which the liquid storage portion is in. a liquid storage portion made of a metal and configured to contain liquid; a pouring portion removeably connected to the liquid storage portion and having an outlet for pouring the liquid; and a cap portion removeably attached to the pouring portion and covering the outlet, the liquid refill container being characterized in that the pouring portion and the liquid storage portion are in the same color system in an CIE color specification system, and the cap portion is in a color system in the CIE color specification system that is different from the color system in which the liquid storage portion is in.
A compound of the general formula: or a pharmacologically acceptable salt, solvate, hydrate or a pharmacologically acceptable formulation thereof, wherein R 1 is selected from R 2 is hydroxy, heteroalkyl, alkoxy, polyalkoxyalkyl, NR 3 R 4, (NHS 2 -m-(C 6 H 4)N 3, or Xaa o; R 3 and R 4 are each and independently of each other selected from hydrogen atom, hydroxy, alkyl, heteroalkyl, cycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aralkyl, or heteroaralkyl; Xaa is Gly, a conventional D,L-, D- or L-amino acid, a nonconventional D,L-, D- or L-amino acid, or a 2- to 10-mer peptide, wherein Xaa is joined to -C by an amide bond; o is an integer selected from 1 to 10; B is CH 2, O, or S; m is an integer from 1 to 6; T, U and W each are -CH 2 CH 2 -; V is cis or trans -CH=CH-; X is absent or selected from CH 2 and NR 5; Z is selected from CH 2 and NR 5'; R 5 and R 5' are each and independently of each other selected from a hydrogen atom, a hydroxy, alkyl, cycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aralkyl, or heteroaralkyl group; Y is -C - or -C -C -; and n is an integer from 0 to 6. R 1 is selected from R 2 is hydroxy, heteroalkyl, alkoxy, polyalkoxyalkyl, NR 3 R 4, (NHS 2 -m-(C 6 H 4)N 3, or Xaa o; R 3 and R 4 are each and independently of each other selected from hydrogen atom, hydroxy, alkyl, heteroalkyl, cycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aralkyl, or heteroaralkyl; Xaa is Gly, a conventional D,L-, D- or L-amino acid, a nonconventional D,L-, D- or L-amino acid, or a 2- to 10-mer peptide, wherein Xaa is joined to -C by an amide bond; o is an integer selected from 1 to 10; B is CH 2, O, or S; m is an integer from 1 to 6; T, U and W each are -CH 2 CH 2 -; V is cis or trans -CH=CH-; X is absent or selected from CH 2 and NR 5; Z is selected from CH 2 and NR 5'; R 5 and R 5' are each and independently of each other selected from a hydrogen atom, a hydroxy, alkyl, cycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aralkyl, or heteroaralkyl group; Y is -C - or -C -C -; and n is an integer from 0 to 6.
A device comprising at least one processor, and memory storing instructions that, when executed, cause the device to operate as an agent configured to receive a connection request from a user to access a host, and in response to receiving the connection request, determine user attributes from user login information associated with the connection request, the device being further configured to: send to a certificate authority, a request for an authenticator, the request comprising the determined user attributes for mapping by the certificate authority the determined user attributes to principals defining user roles, acquire an authenticator with a relatively short validity period from the certificate authority comprising principals defining user roles to which the determined user attributes map, and perform authentication with the host using the acquired authenticator with the relatively short validity period and access accounts at the host based on the principals defining user roles.
A medical device comprising: a. a first porous substrate layer having at least one major facing surface with at least a surface coating thereon of a first co-reactive component; b. a second substrate layer having at least one major facing surface with at least a surface coating layer of a second co-reactive component that reacts with the first co-reactive component; and c. a removable barrier layer positioned between the first substrate layer and second substrate layer and in contact with at least one major facing surface or a surface coating, each, independently of one another, from said first substrate layer and said second substrate layer. a. a first porous substrate layer having at least one major facing surface with at least a surface coating thereon of a first co-reactive component; b. a second substrate layer having at least one major facing surface with at least a surface coating layer of a second co-reactive component that reacts with the first co-reactive component; and c. a removable barrier layer positioned between the first substrate layer and second substrate layer and in contact with at least one major facing surface or a surface coating, each, independently of one another, from said first substrate layer and said second substrate layer.
A movable body apparatus, comprising: a movable body arranged for holding an object and being movable relative to a base; and a drive device having a mover provided at the movable body and a stator provided at the base, wherein the movable body has a slider section, a support member, a frame, and a holding member, the mover being attached to the slider section, the frame being connected to the slider section, the support member being connected to the slider section, the holding member being supported by the support member, and the holding member being arranged for holding the object, wherein the support member and the frame form a squeeze film damper therebetween. a movable body arranged for holding an object and being movable relative to a base; and a drive device having a mover provided at the movable body and a stator provided at the base, wherein the movable body has a slider section, a support member, a frame, and a holding member, the mover being attached to the slider section, the frame being connected to the slider section, the support member being connected to the slider section, the holding member being supported by the support member, and the holding member being arranged for holding the object, wherein the support member and the frame form a squeeze film damper therebetween.
Body part of a motor vehicle comprising: - a main body made of plastic material and sized to be bonded to a motor vehicle body structure, and - at least one bead of glue arranged to receive a second bead of glue, the bead of glue being made of a more flexible material than that forming the main body, characterized in that wherein the bead of glue comprises a core configured to soften the bead of glue. - a main body made of plastic material and sized to be bonded to a motor vehicle body structure, and - at least one bead of glue arranged to receive a second bead of glue, the bead of glue being made of a more flexible material than that forming the main body, characterized in that wherein the bead of glue comprises a core configured to soften the bead of glue.
A method for producing a (meth)acrylate copolymer having at least one (meth)acryloyl group in its side chains, comprising anionic polymerization of a mixture of a di(meth)acrylate represented by the following general formula and an alkyl (meth)acrylate represented by the following general formula in the presence of an organolithium compound, a tertiary organoaluminum compound having a chemical structure represented by the following general formula in its molecules, and at least one Lewis base selected from the group consisting of ethers and tertiary polyamines, wherein the anionic polymerization is performed at a temperature in the range of -30°C to 25°C. (wherein R 1 denotes a hydrogen atom or a methyl group, R 2 denotes a linear alkylene group having 1 to 5 carbon atoms, and R 3 and R 4 each independently denote a hydrocarbon group having 1 to 6 carbon atoms) (wherein R 5 denotes a hydrogen atom or a methyl group, and R 6 denotes an alkyl group having 1 to 6 carbon atoms) [Chem. 3] Al-O-Ar (wherein Ar denotes an aromatic ring)
An outdoor unit of air conditioner, comprising a main body, and an electrical component box, a fan motor, a compressor and a condenser, which are all installed in the main body; the electrical component box comprises an electrical box cover, an electrical box, and a circuit board on which electrical components and a radiator are installed; the circuit board is fixed in the electrical box; the electrical box cover is installed on top of the electrical box; a baffle box disposed between the electrical box and the fan motor; the baffle box surrounds the electrical box; characterized in that a left side of the baffle box is fixed on the condenser with joggles; and a front side of the baffle box is fixed on a baffle of the main body with screws or joggles; a support column for supporting the circuit board and a support pedestal for supporting the radiator are disposed inside the electrical box.
A power controller of a hybrid vehicle, the power controller comprising: a first drive motor (2, 5) that drives any one of a front wheel and a rear wheel of a vehicle; an engine that drives the one wheel or the corresponding other one of the front wheel and the rear wheel of the vehicle through a clutch; a generator that is driven by the engine; and a voltage transformer that steps down generated electric power supplied to the first drive motor (2, 5) and a battery from the generator, characterized in that: the power controller further comprises a limitation part that limits passing power of the voltage transformer according to the temperature of the voltage transformer, and a connection part that switches connection of the clutch; and the connection part connects the clutch when the passing power of the voltage transformer is limited by the limitation part. a first drive motor (2, 5) that drives any one of a front wheel and a rear wheel of a vehicle; an engine that drives the one wheel or the corresponding other one of the front wheel and the rear wheel of the vehicle through a clutch; a generator that is driven by the engine; and a voltage transformer that steps down generated electric power supplied to the first drive motor (2, 5) and a battery from the generator, characterized in that: the power controller further comprises a limitation part that limits passing power of the voltage transformer according to the temperature of the voltage transformer, and a connection part that switches connection of the clutch; and the connection part connects the clutch when the passing power of the voltage transformer is limited by the limitation part. the power controller further comprises a limitation part that limits passing power of the voltage transformer according to the temperature of the voltage transformer, and a connection part that switches connection of the clutch; and a limitation part that limits passing power of the voltage transformer according to the temperature of the voltage transformer, and a connection part that switches connection of the clutch; and the connection part connects the clutch when the passing power of the voltage transformer is limited by the limitation part.
Method for determining the placement ([R|T]) of the head of a vehicle driver, comprising the steps consisting in: a) acquiring at least an image (Img i) in the thermal infrared range (LWIR), on which at least a part of the driver's head appears, b) processing of said image (Img i) in order to identify specific points (P i) of the head of the driver, and c) determining the placement ([R|T]) of the head of the driver, as a function of the position of the specific points (P i) on said image (Img i), characterised in that a preliminary initialisation phase is provided during which: - a three-dimensional modelling of the head of the driver is acquired, - a texture is applied on at least a part of said three-dimensional modelling, considering at least one acquired image of the head of the driver, - a plurality of two-dimensional synthesized images (Img_s j) is generated, corresponding to the projection of said three-dimensional modelling textured in a plurality of planes inclined from each other, - specific points (P_s j) of the head of the driver are identified on each synthesized image (Img_s j), - data issued from said three-dimensional modelling textured and characterised of the specific points (P_s j) identified on the synthesized image (Img_s j) is stored in the individual records of a computer memory, each associated to one of said synthesized images (Img_s j), in step c), the specific points (P i) identified in step b) are compared with the data stored in the computer memory in order to derive the placement ([R|T]) of the head of the driver. a) acquiring at least an image (Img i) in the thermal infrared range (LWIR), on which at least a part of the driver's head appears, b) processing of said image (Img i) in order to identify specific points (P i) of the head of the driver, and c) determining the placement ([R|T]) of the head of the driver, as a function of the position of the specific points (P i) on said image (Img i), - a three-dimensional modelling of the head of the driver is acquired, - a texture is applied on at least a part of said three-dimensional modelling, considering at least one acquired image of the head of the driver, - a plurality of two-dimensional synthesized images (Img_s j) is generated, corresponding to the projection of said three-dimensional modelling textured in a plurality of planes inclined from each other, - specific points (P_s j) of the head of the driver are identified on each synthesized image (Img_s j), - data issued from said three-dimensional modelling textured and characterised of the specific points (P_s j) identified on the synthesized image (Img_s j) is stored in the individual records of a computer memory, each associated to one of said synthesized images (Img_s j),
Apparatus for retaining an end of an elongate object, in particular a self-supporting load, which has a base frame on which a retention member to which the elongate object can be secured is pivotably arranged and which has at least one actuation device, by means of which the retention member can be pivoted relative to the base frame, wherein the apparatus has an adapter which retains the elongate object and which is arranged on the retention member, characterised in that the adapter can be arranged in at least one eccentric position on the retention member and can be arranged offset relative thereto and consequently relative to a centre plane of the apparatus, and wherein the adapter can be arranged with discrete spacings or in a continuously changeably eccentric manner on the retention member.
An air cycle machine comprising: a shaft; a compressor connected to the shaft; a turbine connected to the compressor by the shaft, the turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the turbine being located on a first end of the shaft, the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the turbine being configured to mix alternative medium flows at the exit of the turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air from a scooping mechanism sourced from an inlet, the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a power turbine connected to the compressor by the shaft; wherein the power turbine is configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor; and wherein the turbine inner flow path is at a first diameter and the turbine outer flow path is at a second diameter. a shaft; a compressor connected to the shaft; a turbine connected to the compressor by the shaft, the turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the turbine being located on a first end of the shaft, the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the turbine being configured to mix alternative medium flows at the exit of the turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air from a scooping mechanism sourced from an inlet, the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a power turbine connected to the compressor by the shaft; wherein the power turbine is configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor; and wherein the turbine inner flow path is at a first diameter and the turbine outer flow path is at a second diameter.