mhurhangee/ep-ind-claims huggingface dataset:
Holder means for holding one or more test soil devices for allowing a washing process to be tested, said holder means including at least first and second members (8, 10), each member having a test soil device holding portion (18, 20) and at least said portion (18, 20) of said first and/or second members (8, 10) is capable of undergoing relative movement between open and closed positions, said test soil device holding portions (18, 20) arranged such that in the closed position, a test soil device can be retained between surfaces of the test soil device holding portions (18, 20) of said members (8, 10), and in the open position, the test soil device can be located with and/or removed from said test soil device holding portions (18, 20), when in the closed position, the test soil device holding portions (18, 20) of said members (8, 10) are substantially parallel and adjacent each other, and when in the open position the portions of the members (8, 10) are provided a spaced distance apart, characterized in that said first and second members (8,10) are resiliently biased to the closed position with biasing means and in that each of said holding portions (18, 20) include two or more surfaces located at different angles or orientated in different directions relative to each other such that the test soil device can be held between each of the two or more surfaces of said holding portions.
A method for fail-safe resolver excitation, the method comprising: generating a resolver excitation signal; providing the resolver excitation signal to an input of a first resolver control circuit and to an input of a second resolver control circuit; the method being characterized in that, in response to the first resolver control circuit detecting a fault in the resolver excitation signal provided to the first resolver control circuit: biasing, using the first resolver control circuit, a first resolver amplifier; and communicating, via a communication bus between the first resolver control circuit and the second resolver control circuit, an indication to the second resolver control circuit that the first resolver control circuit detected the fault in the resolver excitation signal provided to the first resolver control circuit. generating a resolver excitation signal; providing the resolver excitation signal to an input of a first resolver control circuit and to an input of a second resolver control circuit; the method being characterized in that, in response to the first resolver control circuit detecting a fault in the resolver excitation signal provided to the first resolver control circuit: biasing, using the first resolver control circuit, a first resolver amplifier; and communicating, via a communication bus between the first resolver control circuit and the second resolver control circuit, an indication to the second resolver control circuit that the first resolver control circuit detected the fault in the resolver excitation signal provided to the first resolver control circuit. biasing, using the first resolver control circuit, a first resolver amplifier; and communicating, via a communication bus between the first resolver control circuit and the second resolver control circuit, an indication to the second resolver control circuit that the first resolver control circuit detected the fault in the resolver excitation signal provided to the first resolver control circuit.
A window lifter assembly for adjusting a vehicle window, comprising: - a flexible traction element for transmitting an adjustment force to adjust the vehicle window; - a guiding element (3, 3.1, 3.2, 3.3) at which the flexible traction element is guided from a first direction towards a second direction; - a carrier member (1, 1.1) made of plastic material and comprising a mounting region for the guiding element (3, 3.1, 3.2, 3.3); and - a reinforcement member made of a different material than the carrier member, which reinforcement member carries the guiding element (3, 3.1, 3.2, 3.3) and is at least partially embedded in the plastic material of the carrier member (1, 1.1) at the mounting region, characterized in that the reinforcement member comprises a base portion to which the guiding element (3, 3.1, 3.2, 3.3) is fixed and which is located in a carrier opening in the carrier member (1, 1.1). - a flexible traction element for transmitting an adjustment force to adjust the vehicle window; - a guiding element (3, 3.1, 3.2, 3.3) at which the flexible traction element is guided from a first direction towards a second direction; - a carrier member (1, 1.1) made of plastic material and comprising a mounting region for the guiding element (3, 3.1, 3.2, 3.3); and - a reinforcement member made of a different material than the carrier member, which reinforcement member carries the guiding element (3, 3.1, 3.2, 3.3) and is at least partially embedded in the plastic material of the carrier member (1, 1.1) at the mounting region,
A reciprocating linear motion mechanism for a can body maker, comprising: a housing including an internal gear having a first central axis as a center; a first rotating body located inside the housing and relatively rotatably joined to the housing; a second rotating body including an external gear having a second central axis parallel to the first central axis as a center and meshing with the internal gear and relatively rotatably joined to the first rotating body; and a ram shaft joining part connected to the second rotating body and configured to be linearly moved in a reciprocating manner in a prescribed direction, characterized in that an air supply path passing through insides of the first rotating body, the second rotating body, and the ram shaft joining part. a housing including an internal gear having a first central axis as a center; a first rotating body located inside the housing and relatively rotatably joined to the housing; a second rotating body including an external gear having a second central axis parallel to the first central axis as a center and meshing with the internal gear and relatively rotatably joined to the first rotating body; and a ram shaft joining part connected to the second rotating body and configured to be linearly moved in a reciprocating manner in a prescribed direction, characterized in that an air supply path passing through insides of the first rotating body, the second rotating body, and the ram shaft joining part.
A balanced armature receiver (100, 200, 300, 400, 500, 600, 600', 600", 600"', 700, 800, 900, 900', 900") comprising: a housing (102, 202, 302, 402, 502); an acoustic pathway within the housing through which an acoustic signal travels; an acoustic valve (112, 1008, 1108, 1200, 1300) within the acoustic pathway; an armature assembly (104, 204, 304, 404, 504, 604, 704, 804, 904) within the housing, the armature assembly comprising a first deflectable armature portion (108a, 208a, 308a, 408a, 508a, 608a, 708a, 808a, 908a), characterized in that the armature assembly further comprises a second deflectable armature portion (106a, 206a, 306a, 406a, 506a, 606a, 706a, 806a, 906a); the first armature portion and the second armature portion being operated such that the second armature portion is substantially unstable relative to the first armature portion; a drive rod (110, 1006, 1208) coupling the second deflectable armature portion to the acoustic valve (112, 1008, 1108, 1200, 1300) such that the acoustic valve is either substantially open or substantially closed during operation. a housing (102, 202, 302, 402, 502); an acoustic pathway within the housing through which an acoustic signal travels; an acoustic valve (112, 1008, 1108, 1200, 1300) within the acoustic pathway; an armature assembly (104, 204, 304, 404, 504, 604, 704, 804, 904) within the housing, the armature assembly comprising a first deflectable armature portion (108a, 208a, 308a, 408a, 508a, 608a, 708a, 808a, 908a), characterized in that the armature assembly further comprises a second deflectable armature portion (106a, 206a, 306a, 406a, 506a, 606a, 706a, 806a, 906a); the first armature portion and the second armature portion being operated such that the second armature portion is substantially unstable relative to the first armature portion; a drive rod (110, 1006, 1208) coupling the second deflectable armature portion to the acoustic valve (112, 1008, 1108, 1200, 1300) such that the acoustic valve is either substantially open or substantially closed during operation.
A bag constructed of polymeric material and adapted to be closed and sealed after being filled with contents, comprising: a polymeric tube closed at one end to provide a bag having a closed end; the bag having a first panel, a second panel and side gussets; the first panel having a first section and a second section; another end of the bag having a stepped construction through which the bag is to be filled with contents, wherein the stepped construction includes the second section, portions of the side gussets extending beyond the second section and a portion of the second panel extending beyond the portions of the side gussets; first adhesive material on the first section characterised in that second adhesive material is on the stepped construction, which attain adhesive states by heating to a temperature below the softening point temperature of the polymeric material; the first panel having a third section between the first section and the second section; the first adhesive material and the second adhesive material being absent from the third section, wherein the third section is free of adhesive; said another end of the bag being closable and the bag being foldable along the third section without displacing or expelling adhesive from the third section in order to minimize adhesive contamination on surfaces of the bag, wherein the first adhesive material and the second adhesive material meet in contact and under pressure below the third section and provide an adhesive-to-adhesive seal. a polymeric tube closed at one end to provide a bag having a closed end; the bag having a first panel, a second panel and side gussets; the first panel having a first section and a second section; another end of the bag having a stepped construction through which the bag is to be filled with contents, wherein the stepped construction includes the second section, portions of the side gussets extending beyond the second section and a portion of the second panel extending beyond the portions of the side gussets; first adhesive material on the first section characterised in that second adhesive material is on the stepped construction, which attain adhesive states by heating to a temperature below the softening point temperature of the polymeric material; the first panel having a third section between the first section and the second section; the first adhesive material and the second adhesive material being absent from the third section, wherein the third section is free of adhesive; said another end of the bag being closable and the bag being foldable along the third section without displacing or expelling adhesive from the third section in order to minimize adhesive contamination on surfaces of the bag, wherein the first adhesive material and the second adhesive material meet in contact and under pressure below the third section and provide an adhesive-to-adhesive seal.
A cylinder block comprising a water jacket coolant passage division member (1, 31), the water jacket coolant passage division member (1, 31) comprises: a partition member (2, 32) that divides a groove-like coolant passage into an upper part and a lower part, the groove-like coolant passage being provided to the cylinder block that is configured to be provided to an internal combustion engine; an inner-side rubber member (3, 33) that is provided to an inner side of the partition member -, and comes in contact with a cylinder bore-side wall surface of the groove-like coolant passage; and an outer-side rubber member (4, 34) that is provided to an outer side of the partition member, and comes in contact with an outer wall surface of the groove-like coolant passage, characterized in that the water jacket coolant passage division member (1, 31) contacts the cylinder block exclusively via the inner-side rubber member (3, 33) and the outer-side rubber member (4, 34), so that the partition member (2, 32) is secured in the upward-downward direction, wherein the partition member (2, 32) is a resin partition member, - - the height of the inner-side rubber member (3, 33) is smaller than the height of an inner side surface of the partition member (2, 32) and the height of the outer-side rubber member (4, 34) is smaller than the height of an outer side surface of the partition member (2, 32), and the inner-side rubber member (3, 33) and the outer-side rubber member (4, 34) have a circular cross section. a partition member (2, 32) that divides a groove-like coolant passage into an upper part and a lower part, the groove-like coolant passage being provided to the cylinder block that is configured to be provided to an internal combustion engine; an inner-side rubber member (3, 33) that is provided to an inner side of the partition member -, and comes in contact with a cylinder bore-side wall surface of the groove-like coolant passage; and an outer-side rubber member (4, 34) that is provided to an outer side of the partition member, and comes in contact with an outer wall surface of the groove-like coolant passage, characterized in that the water jacket coolant passage division member (1, 31) contacts the cylinder block exclusively via the inner-side rubber member (3, 33) and the outer-side rubber member (4, 34), so that the partition member (2, 32) is secured in the upward-downward direction, wherein the partition member (2, 32) is a resin partition member, - - the height of the inner-side rubber member (3, 33) is smaller than the height of an inner side surface of the partition member (2, 32) and the height of the outer-side rubber member (4, 34) is smaller than the height of an outer side surface of the partition member (2, 32), and the inner-side rubber member (3, 33) and the outer-side rubber member (4, 34) have a circular cross section.
A stent, comprising: a stent body having: a circumference; and struts having respective strut ends, and circumference in turns, least two of said further comprising characterized by: at least two paddle-shaped markers (12; 13) extending away from a respective one of said strut ends, said markers having respective marker extreme ends and different overall longitudinal lengths substantially aligning said marker extreme ends approximately along a single circumference of said stent body. a stent body having: a circumference; and struts having respective strut ends, and circumference in turns, least two of said further comprising characterized by: at least two paddle-shaped markers (12; 13) extending away from a respective one of said strut ends, said markers having respective marker extreme ends and different overall longitudinal lengths substantially aligning said marker extreme ends approximately along a single circumference of said stent body. a circumference; and struts having respective strut ends, and circumference in turns, least two of said further comprising at least two paddle-shaped markers (12; 13) extending away from a respective one of said strut ends, said markers having respective marker extreme ends and different overall longitudinal lengths substantially aligning said marker extreme ends approximately along a single circumference of said stent body.
An in vitro method of preparing a population of neural stem cells capable of generating neurons in a recipient's spinal cord comprising: a) expanding at least one neural stem cell obtained directly from mammalian tissue in a culture vessel precoated with 0.1 μg/ml to 1 mg/ml of one or more polymers capable of promoting adhesion of the cells; b) concentrating the expanded population, wherein the at least one neural stem cell is obtained from mammalian sources other than human embryos, wherein expanding the neural stem cell includes culturing the neural stem cell in the absence of serum, wherein expanding the neural stem cell includes exposing the neural stem cell to at least one growth factor, and wherein the cell expansion exceeds thirty cell doublings without differentiating. a) expanding at least one neural stem cell obtained directly from mammalian tissue in a culture vessel precoated with 0.1 μg/ml to 1 mg/ml of one or more polymers capable of promoting adhesion of the cells; b) concentrating the expanded population,
Method for configuring a scale, in particular a combination scale, characterized in that and comprising the following steps: a) providing a digital model of a basic configuration of the scale and an initial control data set of the scale; b) providing data of the products to be transported; c) numerical simulation of the movement of products over the transport path of the scale; d) adapting and/or optimizing the digital model of the scale, based on results of the numerical simulation; e) outputting the adapted and/or optimized digital model of the scale. a) providing a digital model of a basic configuration of the scale and an initial control data set of the scale; b) providing data of the products to be transported; c) numerical simulation of the movement of products over the transport path of the scale; d) adapting and/or optimizing the digital model of the scale, based on results of the numerical simulation; e) outputting the adapted and/or optimized digital model of the scale.
Hemostatic foam for packing antrums or other cavities of the human or animal body comprising a blend of a chitosan hemostatic agent and a phase-separated polymer, which phase-separated polymer provides the foam with a porosity of 85-99% and a foam density of 0.01-0.2 g/cm 3, wherein the foam density is calculated as the polymer mass per volume unit foam, wherein said phase-separated polymer comprises an amorphous segment and a crystalline segment, wherein at least said amorphous segment comprises a hydrophilic segment; and wherein the amount of chitosan hemostatic agent is 5-35 wt.-% of the total weight of the foam, and wherein the chitosan hemostatic agent is a chitosan salt.
Use of a contact dual-range passive planar thermo-optical converter for evaluating the presence and extent of skin allergic reaction expressed as the hyperthermic allergic response in form of a dermo-thermal effect by detecting a region of changed temperature on patient's skin associated with allergic skin reaction initiated by in vivo allergy testing procedure, whereby the thermo-optical converter has a layered structure comprising - in a sequence - a transparent film layer being a base polyester foil, a thermochromic layer, a securing layer, an adhesive layer, and a removable protective layer, wherein a part of surface of the transparent layer has at least one screen, and the thermochromic layer forms two thermosensitive detectors containing thermochromic dyes, wherein a first planar thermosensitive detector comprises a thermochromic dye capable of changing its colour by selective reflection of a light beam as a function of temperature within a first range from 32.5°C to 34.3°C, a second planar thermosensitive detector comprises a thermochromic dye capable of changing its colour by selective reflection of a light beam a function of temperature within a second range from above 34.3°C to 36.1°C, wherein each of the thermochromic dyes selected for forming the first planar thermosensitive detector and the second planar thermosensitive detector are able to produce a primary colour from the red-green-blue spectrum in a way of selective reflection of a light beam in a temperature range of at least 0.6°C, before switching to another primary colour along with the temperature change.
A method of a base station, being one of a macro base station and a plurality of femto base stations in a mobile communication system including the plurality of femto base stations in a service coverage of the macro base station, the method comprising: grouping a plurality of subframes shared by the macro and femto base stations into a plurality of interlace groups, each interlace group including at least one subframe; regrouping the plurality of interlace groups into a plurality of multiplex groups, each multiplex group including at least one interlace group; allocating radio resources to a first terminal connected to the base station to use maximum transmit power in first multiplex groups, and allocating the radio resources to a second terminal connected to another base station of the macro base station and the plurality of femto base stations, to use maximum transmit power in second multiplex groups; and transmitting allocated radio resource information on the first multiplex groups to the first terminal and transmitting the allocated radio resource information on the second multiplex groups to the second terminal, wherein grouping comprises grouping the plurality of subframes into the plurality of interlace groups according a retransmission cycle of subframe from the terminal to the base station. grouping a plurality of subframes shared by the macro and femto base stations into a plurality of interlace groups, each interlace group including at least one subframe; regrouping the plurality of interlace groups into a plurality of multiplex groups, each multiplex group including at least one interlace group; allocating radio resources to a first terminal connected to the base station to use maximum transmit power in first multiplex groups, and allocating the radio resources to a second terminal connected to another base station of the macro base station and the plurality of femto base stations, to use maximum transmit power in second multiplex groups; and transmitting allocated radio resource information on the first multiplex groups to the first terminal and transmitting the allocated radio resource information on the second multiplex groups to the second terminal, wherein grouping comprises grouping the plurality of subframes into the plurality of interlace groups according a retransmission cycle of subframe from the terminal to the base station.