mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: an automated motorized device operable to run along a curvilinear shaped edge of a structure, the automated motorized device comprising: a movement component operable to move the automated motorized device along the curvilinear shaped edge of the structure, wherein the movement component comprises a plurality of wheels and/or rollers, said wheels comprising one or more drive wheels that are driven by one or more motors in said automated motorized device; wherein the plurality of wheels and/or rollers comprises a first one or more wheels running on a first surface of the structure and a second one or more wheels running on a second surface of the structure that is opposite of said first surface, and each of the first one or more wheels and the second one or more wheels are pushed tightly into the surface on which they are running; and a reflector that is operable to reflect signals back to a source of the signals. an automated motorized device operable to run along a curvilinear shaped edge of a structure, the automated motorized device comprising: a movement component operable to move the automated motorized device along the curvilinear shaped edge of the structure, wherein the movement component comprises a plurality of wheels and/or rollers, said wheels comprising one or more drive wheels that are driven by one or more motors in said automated motorized device; wherein the plurality of wheels and/or rollers comprises a first one or more wheels running on a first surface of the structure and a second one or more wheels running on a second surface of the structure that is opposite of said first surface, and each of the first one or more wheels and the second one or more wheels are pushed tightly into the surface on which they are running; and a reflector that is operable to reflect signals back to a source of the signals. a movement component operable to move the automated motorized device along the curvilinear shaped edge of the structure, wherein the movement component comprises a plurality of wheels and/or rollers, said wheels comprising one or more drive wheels that are driven by one or more motors in said automated motorized device; wherein the plurality of wheels and/or rollers comprises a first one or more wheels running on a first surface of the structure and a second one or more wheels running on a second surface of the structure that is opposite of said first surface, and each of the first one or more wheels and the second one or more wheels are pushed tightly into the surface on which they are running; and a reflector that is operable to reflect signals back to a source of the signals.
A composite hydrogel composition comprising: a first hydrogel comprising a reactive precursor comprising a multi-arm polyether possessing electrophilic groups in combination with a second reactive precursor comprising nucleophilic groups; and a second hydrogel comprising at least one initiated precursor comprising at least one vinyl group, wherein the second hydrogel forms a disperse region within the first hydrogel. a first hydrogel comprising a reactive precursor comprising a multi-arm polyether possessing electrophilic groups in combination with a second reactive precursor comprising nucleophilic groups; and a second hydrogel comprising at least one initiated precursor comprising at least one vinyl group, wherein the second hydrogel forms a disperse region within the first hydrogel.
A sealant composition comprising: a first inorganic oxide chosen from at least one of MgSiO 3, MgTiO 3, MgO, CaO, and CaSiO 3; a second inorganic oxide chosen from SiO 2; at least one solvent; and at least one organic resin binder; wherein the SiO 2 is present in an amount of at least about 50 mole %, relative to the total amount of inorganic oxide; and wherein the coefficient of thermal expansion of the sealant composition is less than or equal to about 8 x 10 -6 /°C. a first inorganic oxide chosen from at least one of MgSiO 3, MgTiO 3, MgO, CaO, and CaSiO 3; a second inorganic oxide chosen from SiO 2; at least one solvent; and at least one organic resin binder;
A sound absorbing material having a ventilation resistance in the range of between 0.4 and 20.000 kPa · s/m comprising a sound absorbing surface material having a ventilation resistance in the range of between 0.100 and 1.000 kPa·s/m and an air-permeable porous material sheet laminated onto said sound absorbing surface material, wherein said sound absorbing surface material comprises a fiber sheet and stretchable paper (1a, 1b) laminated on one side of the fiber sheet, wherein the stretchable paper (1a, 1b) has an uneven surface, a unit weight of said stretchable paper (1a, 1b) is in the range of between 10 and 50 g/m 2, and a ventilation resistance of said stretchable paper (la, 1b) is higher than at least 0.060 kPa · s/m.
A detachable pad fastening structure of a helmet, the detachable pad fastening structure comprising: a first fastening unit which includes a first fastening member having a fastening hole formed therein and is disposed at an inner surface of a helmet main body; and a second fastening unit which includes a through-hole formed in the form of a slot in a detachable pad and a second fastening member formed to be movable relative to the through-hole, having at least a part protruding toward the outside of the detachable pad so as to be inserted into the fastening hole in a state in which the second fastening member is located at one side of the through-hole, and configured to be inserted toward the inside of the detachable pad so as to be separated from the fastening hole in a case where the second fastening member is moved relative to the through-hole toward the other side of the through-hole, wherein the second fastening unit further includes a movement guide formed at a circumference of the through-hole and configured to guide movement of the second fastening member relative to the through-hole, and wherein the movement guide includes an inclined part formed to be inclined so that the second fastening member is inserted into the detachable pad when the second fastening member is moved relative to the through-hole from one side to the other side of the through-hole. a first fastening unit which includes a first fastening member having a fastening hole formed therein and is disposed at an inner surface of a helmet main body; and a second fastening unit which includes a through-hole formed in the form of a slot in a detachable pad and a second fastening member formed to be movable relative to the through-hole, having at least a part protruding toward the outside of the detachable pad so as to be inserted into the fastening hole in a state in which the second fastening member is located at one side of the through-hole, and configured to be inserted toward the inside of the detachable pad so as to be separated from the fastening hole in a case where the second fastening member is moved relative to the through-hole toward the other side of the through-hole, wherein the second fastening unit further includes a movement guide formed at a circumference of the through-hole and configured to guide movement of the second fastening member relative to the through-hole, and wherein the movement guide includes an inclined part formed to be inclined so that the second fastening member is inserted into the detachable pad when the second fastening member is moved relative to the through-hole from one side to the other side of the through-hole.
A method comprising: receiving, by a network device and from an ingress network device of a ring network, a resource reservation request message to establish a point-to-multipoint, P2MP, ring label switched path, LSP, wherein the resource reservation request message includes a leaf identification object for identifying one or more leaf network devices of the P2MP ring LSP; determining, by the network device and based on the leaf identification object, that the network device is one of the one or more leaf network devices of the P2MP ring LSP; sending, by the network device and in response to determining that the network device is one of the one or more leaf network devices of the P2MP ring LSP and reserving resources according to the resource reservation request message, a resource reservation response message towards the ingress network device; modifying, by the network device and based on the resource reservation request message, forwarding information of the network device to forward network traffic received on the P2MP ring LSP off of the P2MP ring LSP; and sending, by the network device and to a next hop network device along the P2MP ring LSP, the resource reservation request message or a modified resource reservation request message including a modified leaf identification object. receiving, by a network device and from an ingress network device of a ring network, a resource reservation request message to establish a point-to-multipoint, P2MP, ring label switched path, LSP, wherein the resource reservation request message includes a leaf identification object for identifying one or more leaf network devices of the P2MP ring LSP; determining, by the network device and based on the leaf identification object, that the network device is one of the one or more leaf network devices of the P2MP ring LSP; sending, by the network device and in response to determining that the network device is one of the one or more leaf network devices of the P2MP ring LSP and reserving resources according to the resource reservation request message, a resource reservation response message towards the ingress network device; modifying, by the network device and based on the resource reservation request message, forwarding information of the network device to forward network traffic received on the P2MP ring LSP off of the P2MP ring LSP; and sending, by the network device and to a next hop network device along the P2MP ring LSP, the resource reservation request message or a modified resource reservation request message including a modified leaf identification object.
Fluidic, in particular hydraulic, lifting support for a road vehicle, wherein the lifting support comprises a lifting cylinder, which has a central axis and a cylinder housing, and an illumination device, characterized in that the illumination device comprises a ring-shaped illuminant which is arranged on the cylinder housing, in particular at the lower end of the cylinder housing, and circumferentially, in particular coaxially, on the lateral face of the cylinder housing and which is preferably secured in frictional and/or interlocking fashion, wherein the assembled ring-shaped illuminant surrounds the cylinder housing circumferentially.
An axial-flow fan having a blade in which a recessed part recessed toward a front edge is formed in a rear edge, wherein: a rounded stress-relieving part is formed in a positive pressure surface side and a negative pressure surface side of a front-edge-side edge part of the recessed part in a cross-sectional view of the blade, the recessed part is a V-shaped recess; in viewing the blade from above, the recessed part has two linear parts (102, 103) leading from the rear edge toward the front edge of the blade, and a curved part joining end parts together in front edges of the two linear parts; and the front-edge-side edge part is the curved part. a rounded stress-relieving part is formed in a positive pressure surface side and a negative pressure surface side of a front-edge-side edge part of the recessed part in a cross-sectional view of the blade, the recessed part is a V-shaped recess; in viewing the blade from above, the recessed part has two linear parts (102, 103) leading from the rear edge toward the front edge of the blade, and a curved part joining end parts together in front edges of the two linear parts; and the front-edge-side edge part is the curved part.
A surgical stapler, comprising: a first handle portion including a staple cartridge channel configured to receive a staple cartridge; a second handle portion including an anvil; a drive member; an actuator (204, 204') operably engageable with said drive member, wherein said actuator is configured to move said drive member along a predetermined path; an actuator lock (220, 220') selectively engageable with said actuator; and a latch rotatably coupled to one of said first handle portion and said second handle portion, wherein said latch is rotatable between an open position and a closed position, wherein said latch is configured to engage the other of said first handle portion and said second handle portion and position said anvil relative to said staple cartridge channel when said latch is moved between said open position and said closed position; characterized in that said latch is configured to engage said actuator lock (220, 220') when said latch is moved into said closed position to disengage said actuator lock (220, 220') from said actuator (204, 204'). a first handle portion including a staple cartridge channel configured to receive a staple cartridge; a second handle portion including an anvil; a drive member; an actuator (204, 204') operably engageable with said drive member, wherein said actuator is configured to move said drive member along a predetermined path; an actuator lock (220, 220') selectively engageable with said actuator; and a latch rotatably coupled to one of said first handle portion and said second handle portion, wherein said latch is rotatable between an open position and a closed position, wherein said latch is configured to engage the other of said first handle portion and said second handle portion and position said anvil relative to said staple cartridge channel when said latch is moved between said open position and said closed position; characterized in that said latch is configured to engage said actuator lock (220, 220') when said latch is moved into said closed position to disengage said actuator lock (220, 220') from said actuator (204, 204').
An engine control method for controlling an engine which is supplied with fuel form a gasification furnace where a calorific value per unit volume of fuel changes, the engine control method comprising the steps of: detecting an actual value of oxygen concentration in exhaust gas; detecting an actual value of a fuel flow rate and an actual value of an air flow rate; calculating an actual value of a theoretical air-fuel ratio changing according to the calorific value, based on the actual value of the oxygen concentration, the actual value of the mixture gas flow rate, and the actual value of the fuel control valve aperture; controlling a first controlled variable determining the air-fuel ratio so that the actual value of the air-fuel ratio coincides with the actual value of the theoretical air-fuel ratio; wherein the first controlled variable is an aperture of a fuel control valve for controlling a flow rate of the fuel supplied to a mixer; setting a target value of an output of the engine to an output limit value; detecting an actual value of the output; and controlling a second controlled variable determining the air flow rate or a mixture gas flow rate so that the actual value of the output coincides with the target value of the output, wherein the second controlled variable is an aperture of a throttle valve; or the second controlled variable is air supply pressure; wherein the output limit value is a size of the output acquired when the air-fuel ratio is maintained at the theoretical air-fuel ratio and the second controlled variable is maintained at a predetermined second limit value. detecting an actual value of oxygen concentration in exhaust gas; detecting an actual value of a fuel flow rate and an actual value of an air flow rate; calculating an actual value of a theoretical air-fuel ratio changing according to the calorific value, based on the actual value of the oxygen concentration, the actual value of the mixture gas flow rate, and the actual value of the fuel control valve aperture; controlling a first controlled variable determining the air-fuel ratio so that the actual value of the air-fuel ratio coincides with the actual value of the theoretical air-fuel ratio; wherein the first controlled variable is an aperture of a fuel control valve for controlling a flow rate of the fuel supplied to a mixer; setting a target value of an output of the engine to an output limit value; detecting an actual value of the output; and controlling a second controlled variable determining the air flow rate or a mixture gas flow rate so that the actual value of the output coincides with the target value of the output, wherein the second controlled variable is an aperture of a throttle valve; or the second controlled variable is air supply pressure; wherein the output limit value is a size of the output acquired when the air-fuel ratio is maintained at the theoretical air-fuel ratio and the second controlled variable is maintained at a predetermined second limit value.
A tension lock, used for LED displays, comprising a base, a rotating shaft, a shim and a knob, wherein the base is provided with a sliding hole, one end of the rotating shaft is fixedly connected with the knob, the other end of the rotating shaft is inserted into the sliding hole, the shim is rotationally connected with the rotating shaft, and the shim is abutted against the knob, the distance between the shim and the knob is kept constant; the knob is turnable to make the rotating shaft rotate and slide along the axial direction of the sliding hole, so that the shim can move away from or close to the base; wherein the rotating shaft comprises a small tube section and a large tube section, the small tube section is fixedly connected with the knob, and the large tube section is inserted into the sliding hole and can slide along the axial direction of the sliding hole; a step surface is formed between the small tube section and the large tube section, one side surface of the shim is abutted against the step surface, and another side surface of the shim is abutted against the knob; characterized in that the tension lock further comprises an elastomeric bead mounted on the knob; a first bead slot and a second bead slot arranged on one side surface of the shim facing the knob; and when the knob is rotated to make the shim move away from the base, the elastomeric bead can slide from the first bead slot to the second bead slot; when the knob is rotated to make the shim close to the base, the elastomeric bead can slide from the second bead slot to the first bead slot. the knob is turnable to make the rotating shaft rotate and slide along the axial direction of the sliding hole, so that the shim can move away from or close to the base; wherein the rotating shaft comprises a small tube section and a large tube section, the small tube section is fixedly connected with the knob, and the large tube section is inserted into the sliding hole and can slide along the axial direction of the sliding hole; a step surface is formed between the small tube section and the large tube section, one side surface of the shim is abutted against the step surface, and another side surface of the shim is abutted against the knob; characterized in that the tension lock further comprises an elastomeric bead mounted on the knob; a first bead slot and a second bead slot arranged on one side surface of the shim facing the knob; and when the knob is rotated to make the shim move away from the base, the elastomeric bead can slide from the first bead slot to the second bead slot; when the knob is rotated to make the shim close to the base, the elastomeric bead can slide from the second bead slot to the first bead slot.
A heat pump device, comprising: a housing (18, 19 20, 21, 22) accommodating a compressor configured to compress a refrigerant, a first heat exchanger configured to exchange heat between the refrigerant and air, a blower, and a second heat exchanger configured to exchange heat between the refrigerant and a heat medium; a partition plate configured to partition a space in the housing (18, 19 20, 21, 22) into a machine compartment in which the compressor is accommodated, and a blower compartment in which the first heat exchanger, the blower, and the second heat exchanger are accommodated; and an internal heat exchanger accommodated in the machine compartment, the internal heat exchanger exchanging heat between the refrigerant having passed through the first heat exchanger and the refrigerant having passed through the second heat exchanger, characterized in that the internal heat exchanger is supported by the partition plate, and wherein the partition plate includes an installation portion protruding with respect to an extending direction of the partition plate; the internal heat exchanger is supported by the installation portion and wherein the installation portion has a shape that is bent at a lower end portion of the partition plate with respect to the extending direction of the partition plate. a housing (18, 19 20, 21, 22) accommodating a compressor configured to compress a refrigerant, a first heat exchanger configured to exchange heat between the refrigerant and air, a blower, and a second heat exchanger configured to exchange heat between the refrigerant and a heat medium; a partition plate configured to partition a space in the housing (18, 19 20, 21, 22) into a machine compartment in which the compressor is accommodated, and a blower compartment in which the first heat exchanger, the blower, and the second heat exchanger are accommodated; and an internal heat exchanger accommodated in the machine compartment, the internal heat exchanger exchanging heat between the refrigerant having passed through the first heat exchanger and the refrigerant having passed through the second heat exchanger, characterized in that the internal heat exchanger is supported by the partition plate, and wherein the partition plate includes an installation portion protruding with respect to an extending direction of the partition plate; the internal heat exchanger is supported by the installation portion and wherein the installation portion has a shape that is bent at a lower end portion of the partition plate with respect to the extending direction of the partition plate.
A method for network access performed by a user equipment, UE, comprising: sending, from the UE, a privacy mobile subscriber identity, PMSI, in place of an international mobile subscriber identity, IMSI, to identify the UE with an initial attach message to a serving network; receiving, from the serving network, an authentication request that includes a next PMSI determined by a server in communication with the serving network, the next PMSI being derived from the PMSI; determining a UE-based next PMSI; comparing the UE-based next PMSI to the next PMSI received as part of the authentication request to determine if there is a match; generating an acknowledgement token in response to determining there is a match; and sending, from the UE, an acknowledgment of receipt of the next PMSI to the server via the serving network, the acknowledgement of receipt comprising the acknowledgement token. sending, from the UE, a privacy mobile subscriber identity, PMSI, in place of an international mobile subscriber identity, IMSI, to identify the UE with an initial attach message to a serving network; receiving, from the serving network, an authentication request that includes a next PMSI determined by a server in communication with the serving network, the next PMSI being derived from the PMSI; determining a UE-based next PMSI; comparing the UE-based next PMSI to the next PMSI received as part of the authentication request to determine if there is a match; generating an acknowledgement token in response to determining there is a match; and sending, from the UE, an acknowledgment of receipt of the next PMSI to the server via the serving network, the acknowledgement of receipt comprising the acknowledgement token.