mhurhangee/ep-ind-claims huggingface dataset:
A waste receptacle (1, 4) for animal excreta, the waste receptacle comprising: a housing having a base and at least one sidewall upstanding from the base so as to define an internal housing void; and a liner insertable into said internal housing void, the housing liner having a liner base and at least one liner sidewall supportable in use so as to be generally upstanding from said liner base, the liner base and said at least one liner sidewall cooperating to define an internal liner void for the receipt of animal litter; wherein the housing and the liner (9; 114) each comprise access ports (5; 124) that cooperate with one another when the liner (9; 114) is received within said internal housing void to allow an animal to enter the housing and access litter provided within said liner void, characterised in that the at least one liner sidewall further comprises a pocket for the storage of a litter scoop, said pocket being provided on an external face of the at least one liner sidewall that is adjacent an internal face of said at least one housing sidewall when the liner (9; 114) is inserted into said internal housing void. a housing having a base and at least one sidewall upstanding from the base so as to define an internal housing void; and a liner insertable into said internal housing void, the housing liner having a liner base and at least one liner sidewall supportable in use so as to be generally upstanding from said liner base, the liner base and said at least one liner sidewall cooperating to define an internal liner void for the receipt of animal litter; wherein the housing and the liner (9; 114) each comprise access ports (5; 124) that cooperate with one another when the liner (9; 114) is received within said internal housing void to allow an animal to enter the housing and access litter provided within said liner void, characterised in that the at least one liner sidewall further comprises a pocket for the storage of a litter scoop, said pocket being provided on an external face of the at least one liner sidewall that is adjacent an internal face of said at least one housing sidewall when the liner (9; 114) is inserted into said internal housing void.
A route planning system for agricultural working machines, wherein associated with the agricultural working machine is a defined working width for generating travel routes in a territory and the agricultural working machine includes at least one crop material storage unit for receiving quantities of crop material and the quantity of crop material can be transferred on to tank discharge vehicles, characterised in that through-put sensors are integrated in grain elevator and tank discharge device of the agricultural working machine for assessing a quantity of crop material received by a crop material storage unit in dependence on at least one characteristic parameter, wherein the assessing operation can be dynamically adapted to changes in the at least one characteristic parameter.
Solid material having a composition according to general formula Li 7+x-y M x Sb 1-x S 6-y X y wherein M is one or more selected from the group consisting of Si, Ge and Sn; 0 ≤ x < 1; X is one or more selected from the group consisting of Cl, Br and I; 0.05 ≤ y ≤ 2. M is one or more selected from the group consisting of Si, Ge and Sn; 0 ≤ x < 1; X is one or more selected from the group consisting of Cl, Br and I; 0.05 ≤ y ≤ 2.
Composite section bar (24, 24') for example for closures such as doors or windows, comprising a metal section bar having an undercut groove, a wooden section bar having an undercut groove, a section bar made of synthetic material with at least one through opening and an undercut groove, at least one coupling device, and wherein: - the coupling device forms a shank and at least a first, a second and a third eccentric head (20") arranged in succession along the shank and projecting radially from it with respect to the longitudinal axis of the shank; - the coupling device is arranged for being inserted in at least one through opening formed in the section bar made of synthetic material and, following a rotation by a predetermined amount around the longitudinal axis thereof, causes the following: - the first eccentric head hooks to an undercut of the metal section bar; - the third eccentric head (20") hooks to an undercut of the wooden section bar; - the second eccentric head, located in an intermediate position between the first and the third head, hooks to an undercut of the section bar made of synthetic material; wherein following the rotation by a predetermined amount, the first, the second and the third eccentric head (20") prevent the section bars made of wood, synthetic material and metal from coming off from the coupling device in an axial direction, stopping or in any case reducing the mutual sliding clearances of the various section bars, in radial directions. - the coupling device forms a shank and at least a first, a second and a third eccentric head (20") arranged in succession along the shank and projecting radially from it with respect to the longitudinal axis of the shank; - the coupling device is arranged for being inserted in at least one through opening formed in the section bar made of synthetic material and, following a rotation by a predetermined amount around the longitudinal axis thereof, causes the following: - the first eccentric head hooks to an undercut of the metal section bar; - the third eccentric head (20") hooks to an undercut of the wooden section bar; - the second eccentric head, located in an intermediate position between the first and the third head, hooks to an undercut of the section bar made of synthetic material; - the first eccentric head hooks to an undercut of the metal section bar; - the third eccentric head (20") hooks to an undercut of the wooden section bar; - the second eccentric head, located in an intermediate position between the first and the third head, hooks to an undercut of the section bar made of synthetic material;
Stator for a rotary electric machine, in particular for a motor vehicle, the stator having: - a body having slots which lead in the axial direction into front and rear axial end walls of said body and which are open in the radial direction in an internal wall of said body, - at least one winding forming a phase of the stator, the winding having a first half-phase forming an external layer of turns and a second half-phase forming an internal layer of turns which is superposed radially in the slot with respect to the external layer, each turn having a wire formed by a series of axial strands that are accommodated in a series of associated slots and connection strands (45, 46) that connect the successive axial strands by extending alternately in protrusion from the front axial end wall and in protrusion from the rear axial end wall so as to form bundles, a wire length of each turn of one of the half-phases (49, 50) being greater than the wire length of each turn of the other half-phase (49, 50), the stator being characterized in that one of the half-phases (49, 50) has a number of turns greater than that of the other half-phase (49, 50). - a body having slots which lead in the axial direction into front and rear axial end walls of said body and which are open in the radial direction in an internal wall of said body, - at least one winding forming a phase of the stator, the winding having a first half-phase forming an external layer of turns and a second half-phase forming an internal layer of turns which is superposed radially in the slot with respect to the external layer, each turn having a wire formed by a series of axial strands that are accommodated in a series of associated slots and connection strands (45, 46) that connect the successive axial strands by extending alternately in protrusion from the front axial end wall and in protrusion from the rear axial end wall so as to form bundles, a wire length of each turn of one of the half-phases (49, 50) being greater than the wire length of each turn of the other half-phase (49, 50), the stator being characterized in that one of the half-phases (49, 50) has a number of turns greater than that of the other half-phase (49, 50).
A load sensing assembly for a spinal implant, the load sensing assembly comprising: a set screw comprising an adjustment head and a bore extending in a vertical direction from an outer top surface of the adjustment head of the set screw into a threaded portion of the set screw, wherein the adjustment head has an external shape configured to engage with a tool to rotate the adjustment head; an antenna; an integrated circuit in communication with the antenna; and a strain gauge in connection with the integrated circuit, wherein the integrated circuit and the strain gauge are positioned within the bore of the set screw, wherein the threaded portion of the set screw is configured to fasten to an anchoring member, and wherein the antenna is positioned in the vertical direction above the adjustment head and, when viewed from the outer top surface of the adjustment head of the set screw, within the bore of the set screw. a set screw comprising an adjustment head and a bore extending in a vertical direction from an outer top surface of the adjustment head of the set screw into a threaded portion of the set screw, wherein the adjustment head has an external shape configured to engage with a tool to rotate the adjustment head; an antenna; an integrated circuit in communication with the antenna; and a strain gauge in connection with the integrated circuit, wherein the integrated circuit and the strain gauge are positioned within the bore of the set screw, wherein the threaded portion of the set screw is configured to fasten to an anchoring member, and wherein the antenna is positioned in the vertical direction above the adjustment head and, when viewed from the outer top surface of the adjustment head of the set screw, within the bore of the set screw.
Process for the purification of Pomalidomide which comprises a) providing crude Pomalidomide in a predetermined amount; b) providing Gentisic acid in a molar ratio comprised between 4: 1 and 1: 4, with respect to Pomalidomide; c1) contacting crude Pomalidomide and Gentisic acid, in solution or in suspension in a suitable solvent, optionally in the presence of at least one Pomalidomide: Gentisic acid co-crystal; d) maintaining Pomalidomide and Gentisic acid in contact for the time necessary to form the Pomalidomide: Gentisic acid co-crystal, e) separating the obtained Pomalidomide: Gentisic acid co-crystal from the solvent, f) optionally crystallizing the Pomalidomide: Gentisic acid co-crystal from a suitable solvent, and g) recovering purified Pomalidomide from the co-crystal Pomalidomide: Gentisic acid, by suspension in an appropriate solvent. a) providing crude Pomalidomide in a predetermined amount; b) providing Gentisic acid in a molar ratio comprised between 4: 1 and 1: 4, with respect to Pomalidomide; c1) contacting crude Pomalidomide and Gentisic acid, in solution or in suspension in a suitable solvent, optionally in the presence of at least one Pomalidomide: Gentisic acid co-crystal; d) maintaining Pomalidomide and Gentisic acid in contact for the time necessary to form the Pomalidomide: Gentisic acid co-crystal, e) separating the obtained Pomalidomide: Gentisic acid co-crystal from the solvent, f) optionally crystallizing the Pomalidomide: Gentisic acid co-crystal from a suitable solvent, and g) recovering purified Pomalidomide from the co-crystal Pomalidomide: Gentisic acid, by suspension in an appropriate solvent.
An ice maker (100, 200), comprising: an ice making container (120, 220) having an ice making space (122, 222) to allow water to be put therein to make ice; a partitioning plate having a plurality of partition walls to demarcate the ice making space (122, 222) into a plurality of unit spaces; a driving unit (140, 250) for supplying a rotary force to the ice making container (120, 220) to allow the ice making container (120, 220) to rotate with respect to the partitioning plate to release ice of the ice making space (122, 222); and a water channel (135, 231) formed at a lowermost point of the partition walls (132, 230) to allow water to move to the unit spaces, wherein the partitioning plate comprises a stopper (133, 240) for stopping ice of the ice making space (122, 222) to allow the ice to be released from the ice making container (120, 220), characterized in that the stopper is integrally formed with the partition walls by connecting the upper surfaces of the partition walls, wherein the stopper is formed to be downwardly sloped toward the inner circumferential surface of the ice making container in order to form a water storage space on an upper surface of the stopper, and wherein a blocking part is formed at an end of an inner side of the stopper and has a certain height in a vertical direction in order to prevent water in the water storage space from flowing into the ice making space. an ice making container (120, 220) having an ice making space (122, 222) to allow water to be put therein to make ice; a partitioning plate having a plurality of partition walls to demarcate the ice making space (122, 222) into a plurality of unit spaces; a driving unit (140, 250) for supplying a rotary force to the ice making container (120, 220) to allow the ice making container (120, 220) to rotate with respect to the partitioning plate to release ice of the ice making space (122, 222); and a water channel (135, 231) formed at a lowermost point of the partition walls (132, 230) to allow water to move to the unit spaces, wherein the partitioning plate comprises a stopper (133, 240) for stopping ice of the ice making space (122, 222) to allow the ice to be released from the ice making container (120, 220), characterized in that the stopper is integrally formed with the partition walls by connecting the upper surfaces of the partition walls, wherein the stopper is formed to be downwardly sloped toward the inner circumferential surface of the ice making container in order to form a water storage space on an upper surface of the stopper, and wherein a blocking part is formed at an end of an inner side of the stopper and has a certain height in a vertical direction in order to prevent water in the water storage space from flowing into the ice making space.
Turbine throughflow meter comprising a housing which has a casing surface, has at least one inflow opening and has at least one outflow opening, and a body which is situated in the housing and which comprises at least one fastening part which holds a rotor, wherein the rotor is displaceable and rotatable with or on an axis, and wherein the rotor has a continuous signal transducer strip and a signal transducer strip with an alternating pattern, characterized in that at least one first sensor and one second sensor are affixed to the casing surface of the housing, wherein the rotor is situated in a working position when the first sensor is situated at the height of the continuous signal transducer strip and the second sensor is situated at the height of the signal transducer strip with the alternating pattern.
A double-ended extendable driveshaft, comprising: a first shaft portion (152, 154) that has a proximal end and a distal end; a first shaft coupler (110, 112) fixed to the distal end of the first shaft portion (152, 154); a first rotary coupler (160, 162) supported for rotation on the proximal end of the first shaft portion (152, 154); a second shaft portion (152, 154) having a proximal end and a distal end, wherein the proximal end of the second shaft portion (152, 154) is slidingly coupled to the proximal end of the first shaft portion (152, 154); a second shaft coupler (110, 112) fixed to the distal end of the second shaft portion (152, 154); a second rotary coupler (160, 162) supported for rotation on the proximal end of the second shaft portion (152, 154); and an actuator coupled to the first rotary coupler (160, 162) and the second rotary coupler (160, 162) to extend and retract the first shaft portion (152, 154) with respect to the second shaft portion (152, 154). a first shaft portion (152, 154) that has a proximal end and a distal end; a first shaft coupler (110, 112) fixed to the distal end of the first shaft portion (152, 154); a first rotary coupler (160, 162) supported for rotation on the proximal end of the first shaft portion (152, 154); a second shaft portion (152, 154) having a proximal end and a distal end, wherein the proximal end of the second shaft portion (152, 154) is slidingly coupled to the proximal end of the first shaft portion (152, 154); a second shaft coupler (110, 112) fixed to the distal end of the second shaft portion (152, 154); a second rotary coupler (160, 162) supported for rotation on the proximal end of the second shaft portion (152, 154); and an actuator coupled to the first rotary coupler (160, 162) and the second rotary coupler (160, 162) to extend and retract the first shaft portion (152, 154) with respect to the second shaft portion (152, 154).
An additive manufacturing system comprising: a build material distributor to distribute build material in a build area of the system; and comprising: a fluid ejector movable across the build area at a maximum speed of less than or equal to 1.016 m/s (40 in/s), the fluid ejector comprising a nozzle having a non-circular bore; wherein the fluid ejector comprises: an ejection chamber adjacent the non-circular bore, the ejection chamber having a port having a first minor dimension; an inlet wider than the port, wherein the inlet is to direct fluid from a fluid supply to the port for entry into the ejection chamber; and a pillar within the inlet to form a passage between the pillar and a side of the inlet, the passage having a second minor dimension greater than the first minor dimension. a fluid ejector movable across the build area at a maximum speed of less than or equal to 1.016 m/s (40 in/s), the fluid ejector comprising a nozzle having a non-circular bore; wherein the fluid ejector comprises: an ejection chamber adjacent the non-circular bore, the ejection chamber having a port having a first minor dimension; an inlet wider than the port, wherein the inlet is to direct fluid from a fluid supply to the port for entry into the ejection chamber; and a pillar within the inlet to form a passage between the pillar and a side of the inlet, the passage having a second minor dimension greater than the first minor dimension. an ejection chamber adjacent the non-circular bore, the ejection chamber having a port having a first minor dimension; an inlet wider than the port, wherein the inlet is to direct fluid from a fluid supply to the port for entry into the ejection chamber; and a pillar within the inlet to form a passage between the pillar and a side of the inlet, the passage having a second minor dimension greater than the first minor dimension.
A material for a cold-rolled stainless steel sheet, the material having a chemical composition containing, by mass%, C: 0.005% to 0.05%, Si: 0.02% to 0.75%, Mn: 0.55% to 0.90%, P: 0.04% or less, S: 0.01% or less, Cr: 16.0% to 18.0%, Al: 0.001% to 0.10%, N: 0.005% to 0.06%, optionally one, two, or more selected from among Cu: 0.1% to 1.0%, Ni: 0.1% to 1.0%, Mo: 0.1% to 0.5%, and Co: 0.01% to 0.3%, optionally one, two, or more selected from among V: 0.01% to 0.25%, Ti: 0.001% to 0.015%, Nb: 0.001% to 0.030%, Mg: 0.0002% to 0.0050%, B: 0.0002% to 0.0050%, and REM: 0.01% to 0.10%, and the balance being Fe and inevitable impurities, and a metallographic structure including a martensite phase having an area ratio of 5% to 50% and the balance being a ferrite phase, wherein the total area ratio of precipitates and inclusions contained in the balance of the metallographic structure is less than 5%, a ferrite phase in portions extending from surface layers of front and back surfaces of a steel sheet to, in a thickness direction of the sheet, positions at t/3 (t: thickness of the sheet), has an average grain diameter of 20 μm or more and 50 μm or less, and a ferrite phase in a central portion in the thickness direction of the sheet, the central portion being a portion of the sheet other than the portions extending from, in the thickness direction of the sheet, the surface layers to the positions at t/3 (t: thickness of the sheet), includes a ferrite phase satisfying an aspect ratio of more than 3.0, wherein the area ratio of the ferrite phase satisfying an aspect ratio of more than 3.0 to the ferrite phase in the central portion in the thickness direction of the sheet is 10% or more, and wherein the aspect ratio is defined by the following formula: r α aspect ratio = d r crystal grain diameter in the rolling direction / d t crystal grain diameter in the thickness direction of the sheet
A system of a bone anchor and an elongate instrument including a bone anchor comprising a shank having a first end and a second end and a channel extending through the shank from the first end to the second end, the channel defining a channel axis; wherein at or close to the second end of the shank an internal advancement structure is provided at an inner wall of the channel; and an elongate instrument (20, 30, 40, 50) that is configured to extend through the channel; wherein the elongate instrument (20, 30, 40, 50) comprises a tip portion (23, 31, 42, 51) and an external advancement structure (25, 32, 43, 53) that cooperates with the internal advancement structure of the shank so as to permit the tip portion (23, 31, 42, 51) to be advanced in the channel in the direction towards the second end and to be moved back in the opposite direction towards the first end, wherein the internal advancement structure is an internal thread and the external advancement structure (25, 32, 43, 53) is an external thread; wherein the elongate instrument with the tip portion (23, 31, 42, 51) is removable from the channel and wherein the tip portion (23, 31, 42, 51) is configured to be advanced in the channel from the first end up to the second end. a bone anchor comprising a shank having a first end and a second end and a channel extending through the shank from the first end to the second end, the channel defining a channel axis; wherein at or close to the second end of the shank an internal advancement structure is provided at an inner wall of the channel; and an elongate instrument (20, 30, 40, 50) that is configured to extend through the channel; wherein the elongate instrument (20, 30, 40, 50) comprises a tip portion (23, 31, 42, 51) and an external advancement structure (25, 32, 43, 53) that cooperates with the internal advancement structure of the shank so as to permit the tip portion (23, 31, 42, 51) to be advanced in the channel in the direction towards the second end and to be moved back in the opposite direction towards the first end, wherein the internal advancement structure is an internal thread and the external advancement structure (25, 32, 43, 53) is an external thread; wherein the elongate instrument with the tip portion (23, 31, 42, 51) is removable from the channel and wherein the tip portion (23, 31, 42, 51) is configured to be advanced in the channel from the first end up to the second end.