mhurhangee/ep-ind-claims huggingface dataset:
A device for absorbing, signaling and picking up a product on a floor, said device comprising: - a slender hollow body whose inner walls define a storage volume in which is stored a powder able to absorb said product, where said storage volume opens through an opening for pouring said powder by gravity; - a stand on which one end of said body is mounted for forming a signaling marker, where said stand comprises a substantially flat base projecting radially relative to said body in order to place said device stably on the floor; characterized in that: - the base comprises at least two detachable parts (31a, 31b) which can be used for picking up a residue formed by said powder and said product. - a slender hollow body whose inner walls define a storage volume in which is stored a powder able to absorb said product, where said storage volume opens through an opening for pouring said powder by gravity; - a stand on which one end of said body is mounted for forming a signaling marker, where said stand comprises a substantially flat base projecting radially relative to said body in order to place said device stably on the floor; - the base comprises at least two detachable parts (31a, 31b) which can be used for picking up a residue formed by said powder and said product.
A ski (s) comprising a body layer (e) and a base, wherein the ski is equipped with a skin mounted on a base of said ski, said skin preventing gliding backwards of said ski, said base material being of plastic at least in the gliding portion, wherein said skin being placed on the base of the ski (s) in a recess (c), said recess being formed essentially in the middle portion of said base, wherein the base of said ski (s) comprises a surface structure (f) layer covering the base, characterized in that the surface structure (f) layer is adapted to extend seamless from the gliding portion of the base to the recess (c) intended for the skin and wherein said surface structure (f) layer is formed of a uniform plastic layer.
An apparatus (130, 510, 1000) configured to control delivering content from a content source provider to a content user in a telecommunication network, comprising: a processing unit (132, 300, 810, 920, 1020) configured to select a scenario from a plurality of possible scenarios, for delivering the content to the content user, depending on factors including a viewer abandonment rate, and to deliver the content according to the selected scenario. a processing unit (132, 300, 810, 920, 1020) configured to select a scenario from a plurality of possible scenarios, for delivering the content to the content user, depending on factors including a viewer abandonment rate, and to deliver the content according to the selected scenario.
A method for wireless communications in a multi carrier wireless communications system, comprising: receiving a power headroom report communication that comprises one or more of a first type of PHR and a second type of PHR, the first type of PHR comprising first power headroom information that is based on a first maximum transmit power associated with two or more uplink component carriers to be concurrently transmitted through a single power amplifier, and the second type of PHR comprising second power headroom information that is based on a second maximum transmit power associated with a selected one uplink component carrier transmitted through a single power amplifier; determining which of the one or more of the first type and second type of PHR are included in the PHR communication; and determining maximum transmit power for one or more to be concurrently transmitted uplink component carriers based on the received PHR communication and the one or more types of PHR included in the PHR communication. receiving a power headroom report communication that comprises one or more of a first type of PHR and a second type of PHR, the first type of PHR comprising first power headroom information that is based on a first maximum transmit power associated with two or more uplink component carriers to be concurrently transmitted through a single power amplifier, and the second type of PHR comprising second power headroom information that is based on a second maximum transmit power associated with a selected one uplink component carrier transmitted through a single power amplifier; determining which of the one or more of the first type and second type of PHR are included in the PHR communication; and determining maximum transmit power for one or more to be concurrently transmitted uplink component carriers based on the received PHR communication and the one or more types of PHR included in the PHR communication.
A headrest with integrated entertainment comprising a headrest shell; and characterised in that the headrest comprises: a headrest mount allowing at least one degree of freedom in movement; a visor comprising at least one side arm and a display span; wherein the visor is rotatably coupled to the headrest shell, and the headrest is coupled to the headrest mount. a headrest mount allowing at least one degree of freedom in movement; a visor comprising at least one side arm and a display span; wherein the visor is rotatably coupled to the headrest shell, and the headrest is coupled to the headrest mount.
Heatable media pipe having at least one pipe connector (11, 110) and heating element, wherein the heating element has one or two wires (20, 28), characterised in that the same wire(s) (20, 28) extend(s) continuously both along the media pipe and along the at least one pipe connector (11, 110), wherein the one or two wire(s) (20, 28) extend(s) in a joint-free manner in the transition region (12, 120) between the media pipe and the pipe connector (11, 110) and continuously along the pipe connector (11, 110) and the media pipe in each case on the outside thereof, wherein a loop formed from a doubled wire or a device connecting the two wires (20, 28) is fixed to a receiving pin on the outside of one pipe connector or is looped around the receiving pin.
A surgical instrument (3900, 4200) comprising: a firing assembly (3950, 4250) including a first portion (3951, 4252), a second portion (3952, 4255) and a fuse (3953, 4253); and a staple cartridge assembly; wherein the firing assembly (3950, 4250) is configured to advance to perform a staple firing stroke and apply a firing load to the staple cartridge assembly, wherein the firing assembly (3950, 4250) is configured to stop the staple firing stroke if the fuse (3953, 4253) in the firing assembly (3950, 4250) fails from an excessive firing load, wherein the firing assembly (3950, 4250) is retractable to reset the fuse (3953, 4253); wherein the first portion comprises a flexible first rod (3951, 4252), and wherein the second portion comprises a second rod (3952, 4255), and wherein the fuse (3953, 4253) in the firing assembly (3950, 4250) fails from an excessive firing load by the flexible first rod (3951, 4252) resiliently bending and disengaging from the second rod (3952, 4255), and wherein the flexible first rod (3951, 4252) is configured to snap back into engagement with the second rod (3952, 4255) when the flexible first rod (3951, 4252) is realigned with the second rod (3952, 4255). a firing assembly (3950, 4250) including a first portion (3951, 4252), a second portion (3952, 4255) and a fuse (3953, 4253); and a staple cartridge assembly; wherein the firing assembly (3950, 4250) is configured to advance to perform a staple firing stroke and apply a firing load to the staple cartridge assembly, wherein the firing assembly (3950, 4250) is configured to stop the staple firing stroke if the fuse (3953, 4253) in the firing assembly (3950, 4250) fails from an excessive firing load, wherein the firing assembly (3950, 4250) is retractable to reset the fuse (3953, 4253); wherein the first portion comprises a flexible first rod (3951, 4252), and wherein the second portion comprises a second rod (3952, 4255), and wherein the fuse (3953, 4253) in the firing assembly (3950, 4250) fails from an excessive firing load by the flexible first rod (3951, 4252) resiliently bending and disengaging from the second rod (3952, 4255), and wherein the flexible first rod (3951, 4252) is configured to snap back into engagement with the second rod (3952, 4255) when the flexible first rod (3951, 4252) is realigned with the second rod (3952, 4255).
An arthroscopic shaver blade (10; 100) adapted to be mounted on a driving means (20; 200), said arthroscopic shaver blade comprising an outer portion and an inner portion configured to rotate within the outer portion when driven by the driving means (20; 200), the outer portion comprising a coupling portion (11,106) characterized by the coupling portion comprising an indicator means (12; 112) for allowing said driving means to determine a property of said arthroscopic shaver blade (10; 100), wherein: said indicator means comprises a soft magnetic material configured to affect a magnetic field detected in said driving means (20; 200), and wherein the shape and/or extent of the soft magnetic material indicates a property of the arthroscopic shaver blade (10; 100); said soft magnetic material being arranged substantially in a plane, said plane being substantially perpendicular to the longitudinal axis of said arthroscopic shaver blade; said soft magnetic material being a ring section located around the longitudinal axis of the arthroscopic shaver blade wherein an angular extent of said soft magnetic material around said longitudinal axis indicates said property of said arthroscopic shaver blade (10; 100); and said soft magnetic material forms a part of the outer surface of the coupling portion(11, 106) of the outer portion of said arthroscopic shaver blade (10; 100). said indicator means comprises a soft magnetic material configured to affect a magnetic field detected in said driving means (20; 200), and wherein the shape and/or extent of the soft magnetic material indicates a property of the arthroscopic shaver blade (10; 100); said soft magnetic material being arranged substantially in a plane, said plane being substantially perpendicular to the longitudinal axis of said arthroscopic shaver blade; said soft magnetic material being a ring section located around the longitudinal axis of the arthroscopic shaver blade wherein an angular extent of said soft magnetic material around said longitudinal axis indicates said property of said arthroscopic shaver blade (10; 100); and said soft magnetic material forms a part of the outer surface of the coupling portion(11, 106) of the outer portion of said arthroscopic shaver blade (10; 100).
Refrigeration device, in particular household refrigeration device such as a refrigerator or a freezer, having a cooling chamber bounded by side walls and at least one lower shelf removably supported on at least one first rib protruding from a side wall into the cooling chamber, wherein a sliding cam on the lower shelf and a stop cam on the at least one rib are provided for limiting the removal of the lower shelf, wherein a hook at least substantially positively enclosing the at least one first rib in the vertical direction and that can be brought out of engagement with the at least one first rib is provided, characterised in that the sliding cam and the hook are disposed in the region of the rear side of the lower shelf and that the sliding cam and the hook are integrated into a strip which is attached to the rear side of the lower shelf.
A mower implement comprising: a body having a front edge, a rear edge, a first side edge, and a second side edge, wherein the body is configured for movement in a direction parallel to a central longitudinal axis that extends between the front edge and the rear edge of the body; a cutter coupled to the body and operable to cut crop material entering through the front edge of the body; a swathboard coupled to the body and operable to form cut crop material exiting through the rear edge of the body into a windrow-, characterized in that it further comprises: a distance sensor (50, 52) coupled to the body and positioned to sense a distance between the first side edge of the body and at least one of an outboard windrow laterally offset outboard of the body relative to the central longitudinal axis, or a standing crop edge entering the front edge of the body; and a computing device disposed in communication with the distance sensor (50, 52), wherein the computing device includes a processor and a memory having an guidance algorithm stored therein, wherein the processor is operable to execute the guidance algorithm to: receive a signal from the distance sensor (50, 52) indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge, based on the signal from the distance sensor (50, 52). a body having a front edge, a rear edge, a first side edge, and a second side edge, wherein the body is configured for movement in a direction parallel to a central longitudinal axis that extends between the front edge and the rear edge of the body; a cutter coupled to the body and operable to cut crop material entering through the front edge of the body; a swathboard coupled to the body and operable to form cut crop material exiting through the rear edge of the body into a windrow-, characterized in that it further comprises: a distance sensor (50, 52) coupled to the body and positioned to sense a distance between the first side edge of the body and at least one of an outboard windrow laterally offset outboard of the body relative to the central longitudinal axis, or a standing crop edge entering the front edge of the body; and a computing device disposed in communication with the distance sensor (50, 52), wherein the computing device includes a processor and a memory having an guidance algorithm stored therein, wherein the processor is operable to execute the guidance algorithm to: receive a signal from the distance sensor (50, 52) indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge, based on the signal from the distance sensor (50, 52). receive a signal from the distance sensor (50, 52) indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge, based on the signal from the distance sensor (50, 52).
An optical reader, comprising: a transport section capable of transporting a medium which is a reading target in forward and backward directions along a transport path; an optical reading section (111, 112) installed in the transport path, the optical reading section being configured to optically read the medium which is transported by the transport section; and a control section configured to set a transport direction of the medium at the time of reading of the medium on the basis of a position of the medium before or when the reading of the medium is started and a reading position of the optical reading section (111, 112) such that a transport distance of the medium until the reading of the medium is completed is shortened, and to control the transport section and the optical reading section. a transport section capable of transporting a medium which is a reading target in forward and backward directions along a transport path; an optical reading section (111, 112) installed in the transport path, the optical reading section being configured to optically read the medium which is transported by the transport section; and a control section configured to set a transport direction of the medium at the time of reading of the medium on the basis of a position of the medium before or when the reading of the medium is started and a reading position of the optical reading section (111, 112) such that a transport distance of the medium until the reading of the medium is completed is shortened, and to control the transport section and the optical reading section.
Suitcase for stacking with a further suitcase, having a put-on surface for stacking the further case on, at least one coupling part (10; 11), which can be brought together with a mating coupling part (28a; 29a) of the further suitcase, with a plug-in connection being formed, wherein the at least one coupling part (10; 11) is oriented in such a manner that, after the further suitcase is put onto the put-on surface, the plug-in connection is formed by displacement of the further suitcase along the put-on surface, and having at least one locking element (18; 38) for securing the plug-in connection against release, wherein the locking element (18; 38) is movable from a starting position into an intermediate or end position, wherein, in the starting position, the plug-in connection is locked and, in the intermediate or end position, the plug-in connection is unlocked, and wherein, in the starting position, the locking element (18; 38) is in a receiving region for the further suitcase, which receiving region is used, when the further suitcase is put onto the put-on surface, in such a manner that the locking element (18; 38) is actuated by the further suitcase being put onto the put-on surface.
A computer-implemented method of planning motion of a vehicle, the method comprising: receiving real-time signals as to positions of N traffic participants; and at each time step of multiple time steps, planning motion for the vehicle by computing states of each of the N traffic participants according to the signals received, using an interaction-aware model of the N traffic participants, wherein said states include current states, which are estimated for each of the N traffic participants, and future states of each of the participants, which are predicted over a prediction horizon T, and wherein the model is designed to cause the method to: recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2,..., N]; and update and sort the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step. receiving real-time signals as to positions of N traffic participants; and at each time step of multiple time steps, planning motion for the vehicle by computing states of each of the N traffic participants according to the signals received, using an interaction-aware model of the N traffic participants, wherein said states include current states, which are estimated for each of the N traffic participants, and future states of each of the participants, which are predicted over a prediction horizon T, and wherein the model is designed to cause the method to: recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2,..., N]; and update and sort the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step. recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2,..., N]; and update and sort the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step.
A centrifugal clutch apparatus comprising: a driving-side rotational member rotatable around a shaft member connected to a driving device; clutch devices mounted on the driving-side rotational member and movable radially outward of the driving-side rotational member when a centrifugal force is exerted on the clutch devices; a driven-side rotational member rotatable independent from the driving-side rotational member and arranged for covering the driving-side rotational member and having an inner circumferential surface able to be engaged with the clutch devices moved radially outward; and friction members secured on surfaces of the clutch devices opposed to the inner circumferential surface of the driven-side rotational member and adapted to be abutted against it so as to transmit the driving power of the driving device to the driven-side rotational member when the clutch devices are moved due to the centrifugal force characterized in: that the inner circumferential surface of the driven-side rotational member is formed with a groove (6c, 6'c, 6"c); and that the centrifugal clutch apparatus further comprises a tension member (12, 12', 13) formed as a ring-shaped member able to be snap-fitted into the groove (6c, 6'c, 6"c) and held therein under a condition expanded radially outward. a driving-side rotational member rotatable around a shaft member connected to a driving device; clutch devices mounted on the driving-side rotational member and movable radially outward of the driving-side rotational member when a centrifugal force is exerted on the clutch devices; a driven-side rotational member rotatable independent from the driving-side rotational member and arranged for covering the driving-side rotational member and having an inner circumferential surface able to be engaged with the clutch devices moved radially outward; and friction members secured on surfaces of the clutch devices opposed to the inner circumferential surface of the driven-side rotational member and adapted to be abutted against it so as to transmit the driving power of the driving device to the driven-side rotational member when the clutch devices are moved due to the centrifugal force characterized in: that the inner circumferential surface of the driven-side rotational member is formed with a groove (6c, 6'c, 6"c); and that the centrifugal clutch apparatus further comprises a tension member (12, 12', 13) formed as a ring-shaped member able to be snap-fitted into the groove (6c, 6'c, 6"c) and held therein under a condition expanded radially outward. that the inner circumferential surface of the driven-side rotational member is formed with a groove (6c, 6'c, 6"c); and that the centrifugal clutch apparatus further comprises a tension member (12, 12', 13) formed as a ring-shaped member able to be snap-fitted into the groove (6c, 6'c, 6"c) and held therein under a condition expanded radially outward.
A method of fabricating a three dimensional micro-electrode array 3DMEA, the method comprising steps of: (a) forming two or more electrically conducting pads separated by electrical-insulating material upon a flexible or rigid substrate; (b) wire bonding a wire upon one of the two or more electrically conducting pads to form an elongate portion of a 3D micro-electrode; (c) selecting a height of the 3D micro-electrode, and cutting the wire according to the height, thereby forming a tip of the 3D micro-electrode distal to the substrate; and (d) coating the 3D micro-electrode with an electrical-insulating layer without coating the tip. (a) forming two or more electrically conducting pads separated by electrical-insulating material upon a flexible or rigid substrate; (b) wire bonding a wire upon one of the two or more electrically conducting pads to form an elongate portion of a 3D micro-electrode; (c) selecting a height of the 3D micro-electrode, and cutting the wire according to the height, thereby forming a tip of the 3D micro-electrode distal to the substrate; and (d) coating the 3D micro-electrode with an electrical-insulating layer without coating the tip.