mhurhangee/patent-ind-claim-en huggingface dataset:
Assembly for a fluid tank comprising: - a baffle , comprising a first deflecting surface intended to define a first part of the tank and a second deflecting surface intended to define a second part of the tank , - a fluid transfer line intended to extend from the first part to the second part and being linked to the baffle by a means of linkage supported by the assembly , wherein the extension of the fluid transfer line in the first part defines a first portion of the fluid transfer line and wherein the extension of the fluid transfer line in the second part defines a second portion of the fluid transfer line , wherein the means of linkage allows for simultaneous rotation of the first portion and the second portion of the fluid transfer line towards a surface comprising one of the deflecting surfaces , characterized in a rotation angle of the simultaneous rotation is comprised between 30 and 60°. - a baffle , comprising a first deflecting surface intended to define a first part of the tank and a second deflecting surface intended to define a second part of the tank , - a fluid transfer line intended to extend from the first part to the second part and being linked to the baffle by a means of linkage supported by the assembly , wherein the extension of the fluid transfer line in the first part defines a first portion of the fluid transfer line and wherein the extension of the fluid transfer line in the second part defines a second portion of the fluid transfer line , wherein the means of linkage allows for simultaneous rotation of the first portion and the second portion of the fluid transfer line towards a surface comprising one of the deflecting surfaces , characterized in a rotation angle of the simultaneous rotation is comprised between 30 and 60°.
A connector comprising a plug having a plug body and a socket having a socket body , wherein the plug and the socket are connected to each other by inserting them in an axial direction, wherein either one of the plug body and the socket body is a male body (A) provided with an insertion portion having a circular outer peripheral surface, and the other is a female body (B) provided with a cylindrical portion into which the insertion portion of the male body (A) can rotatably fit, wherein a plurality of electrical, optical or fluid connecting means are respectively provided at an opposing portion of the male body (A) and the female body (B), an outward protrusion is provided on a part of an outer peripheral surface of a distal end portion of the insertion portion of the male body (A), the connector characterized in that a plurality of inward ridges and an inclined cam surface are provided on an inner surface of the cylindrical portion of the female body (B), wherein a clearance in the axial direction is provided between the ridges and the inclined cam surface so that the protrusion can pass in the circumferential direction of the cylindrical portion , and an entering groove is provided in a base portion of the inclined cam surface , which entering groove is oriented in the direction of the center axis line (L), a groove through which the outward protrusion can pass in the axial direction is formed between each of the adjacent ridges , wherein, when the insertion portion is inserted into the cylindrical portion in the axial direction and the outward protrusion contacts with the inclined cam surface , the male body (A) and the female body (B) are relatively rotated to be positioned at a regular position in a rotational direction around a center axis line (L) of the connector, in which regular position the connecting means are aligned and wherein those connecting means are connected to each other in a state in which the protrusion is completely inserted into the entering groove .
An attachment member for retaining a dental prosthesis on an endosseous dental implant , comprising: an abutment base (2, A2); a dental abutment for fastening into the endosseous dental implant and for retaining the abutment base on the implant; a cap for enveloping the dental abutment; an internal retainer for covering a top of the cap; wherein said cap has a cylindrical or conical shape defining a longitudinal axis and comprises a first inner coupling surface on a first longitudinal end for an adjustment fitting with an outer coupling surface (21, A21) of the abutment base (2, A2) and comprises a second inner coupling surface on a second longitudinal end for an adjustment fitting with an outer coupling surface of the internal retainer ; wherein the internal retainer comprises a snap-fit coupling with the abutment base or with the dental abutment, such that when the internal retainer is snap-fitted and plugged into the top of the cap, the cap is kept under pressure between the internal retainer and the abutment base at said coupling surfaces. an abutment base (2, A2); a dental abutment for fastening into the endosseous dental implant and for retaining the abutment base on the implant; a cap for enveloping the dental abutment; an internal retainer for covering a top of the cap; wherein said cap has a cylindrical or conical shape defining a longitudinal axis and comprises a first inner coupling surface on a first longitudinal end for an adjustment fitting with an outer coupling surface (21, A21) of the abutment base (2, A2) and comprises a second inner coupling surface on a second longitudinal end for an adjustment fitting with an outer coupling surface of the internal retainer ; wherein the internal retainer comprises a snap-fit coupling with the abutment base or with the dental abutment, such that when the internal retainer is snap-fitted and plugged into the top of the cap, the cap is kept under pressure between the internal retainer and the abutment base at said coupling surfaces.
An active stabilisation system comprising: a system mount ; first and second motors having stators connected with a first connection link to the system mount and rotors configured for rotation about a first axis ; third and fourth motors having stators connected with a second connection link to the rotors of the first and second motors and rotors configured for rotation about a second axis orthogonal to the first axis ; and a payload mount passing between and connected to the rotors of the third and fourth motors , characterized in that the payload mount extends between the third and fourth motors and along a third axis orthogonal to the first and second axes , the payload mount being configured for attachment to one or more cameras at one or both opposing ends along the third axis of the payload mount . a system mount ; first and second motors having stators connected with a first connection link to the system mount and rotors configured for rotation about a first axis ; third and fourth motors having stators connected with a second connection link to the rotors of the first and second motors and rotors configured for rotation about a second axis orthogonal to the first axis ; and a payload mount passing between and connected to the rotors of the third and fourth motors , characterized in that the payload mount extends between the third and fourth motors and along a third axis orthogonal to the first and second axes , the payload mount being configured for attachment to one or more cameras at one or both opposing ends along the third axis of the payload mount .
Cooking hob with a hob plate (10a-d) with an at least substantially free placement position (12a-d) for heating a cooking utensil (14a-d), with a placement measuring unit (18a-d), formed differently from a heating unit (16a-d), which is provided to detect the placement of the cooking utensil (14a-d) onto the hob plate (10a-d), and with a control unit (20a-d), which is provided to initiate a placement position determination on receipt of a signal by the placement measuring unit (18a-d), wherein the signal is a value of a physical variable characteristic of the placement of the cooking utensil (14a-d) onto the hob plate (10a-d) and detected by the placement measuring unit (18a-d), wherein the placement measuring unit (18b; 18c) comprises at least two placement sensors (22b, 24b; 22c, 24c, 26c) communicating with the hob plate (10b; 10c) and wherein the control unit (20b; 20c) is provided for making an at least rough determination of the placement position (12b; 12c) on the basis of distance parameters which are dependent on a respective distance of the placement sensors (22b, 24b; 22c, 24c, 26c) from the placement position , characterised in that the control unit (20a-d) is provided, for the at least substantially accurate determination of the placement position (12a-d), to use a position measuring unit (34a-d) formed differently from the placement measuring unit (18a-d).
A multilayer insole with activated carbon which contains a supporting layer , an active layer with activated carbon and an upper layer , wherein above the supporting layer , formed by pressing a mixture of cork granulate and a binder together, is arranged at least one damping layer , on whose upper side is arranged a intermediate cork layer to form a thermal bridge between the user's foot and the bottom layers of the insole, above the intermediate cork layer is arranged the active layer , which is on its upper side covered by the upper layer , which is permeable to vapour as well as to liquid moisture, whereby all the layers of the insole are joined together and the insole has spatial shape, which corresponds on upper side of the insole to the shape of the impression of the lower part of the human sole with planar toe section, with a recess for the big toe joint and a recess for the heel, and which corresponds on the bottom surface of the insole to the bottom part of the human sole with planar toe section.
A battery pack comprising: a battery module that includes a battery cell stack where a plurality of battery cells are stacked; and a pack frame that accommodates the battery module, wherein the pack frame comprises a bottom portion where the battery module is positioned, and a guide pin protruded upward from the bottom portion, the battery module comprises a guide portion where a guide hole is formed and a mounting portion for fixing the battery module, and when the battery module is accommodated in the pack frame, the guide pin passes through the guide hole, wherein the battery module comprises a module frame that accommodates the battery cell stack, and an end plate , and the end plate is disposed in a front side and a rear side opposite the front side of the battery cell stack, characterized in that the mounting portion and the guide portion are formed in the end plate. a battery module that includes a battery cell stack where a plurality of battery cells are stacked; and a pack frame that accommodates the battery module, wherein the pack frame comprises a bottom portion where the battery module is positioned, and a guide pin protruded upward from the bottom portion, the battery module comprises a guide portion where a guide hole is formed and a mounting portion for fixing the battery module, and when the battery module is accommodated in the pack frame, the guide pin passes through the guide hole, wherein the battery module comprises a module frame that accommodates the battery cell stack, and an end plate , and the end plate is disposed in a front side and a rear side opposite the front side of the battery cell stack, characterized in that the mounting portion and the guide portion are formed in the end plate.
A multi-site injection system , comprising: a carrier sheet including a plurality of medicament filled rupturable blisters disposed on an inside surface thereof; and a plurality of needles extending from an outside surface of said carrier sheet, each needle being aligned with a corresponding blister and having a lumen for transport of the medicament into a stratum corneum of a user, each needle traversing said carrier sheet and positioned for rupturing the corresponding blister, characterized by a pressure plate disposed on the carrier sheet inside surface for forcing the blisters against the needles for causing rupture thereof and forcing the medicament through the needle lumens. a carrier sheet including a plurality of medicament filled rupturable blisters disposed on an inside surface thereof; and a plurality of needles extending from an outside surface of said carrier sheet, each needle being aligned with a corresponding blister and having a lumen for transport of the medicament into a stratum corneum of a user, each needle traversing said carrier sheet and positioned for rupturing the corresponding blister, characterized by a pressure plate disposed on the carrier sheet inside surface for forcing the blisters against the needles for causing rupture thereof and forcing the medicament through the needle lumens.
A method for determining an amount of stiction in a control element of a plant operating according to a process control, the method comprising: configuring parameters for a target period of time for evaluation of the control element; collecting field data values of the control element, the field data values including a controller output and a manipulation variable of the control element; calculating a standard deviation of the target period of time for the difference between a position request and a position result, the position request and position result being respectively based on the controller output and the manipulation variable; calculating a standard deviation ratio between the standard deviation of the target period of time and a standard deviation of a reference period of time, the reference period of time being a period of time in which the control element is in optimal condition, and the reference period of time having minimal stiction; and outputting an indication of excessive stiction based on the standard deviation ratio. configuring parameters for a target period of time for evaluation of the control element; collecting field data values of the control element, the field data values including a controller output and a manipulation variable of the control element; calculating a standard deviation of the target period of time for the difference between a position request and a position result, the position request and position result being respectively based on the controller output and the manipulation variable; calculating a standard deviation ratio between the standard deviation of the target period of time and a standard deviation of a reference period of time, the reference period of time being a period of time in which the control element is in optimal condition, and the reference period of time having minimal stiction; and outputting an indication of excessive stiction based on the standard deviation ratio.
A swab comprising: a flexible handle portion ; and a spherical tip portion provided at a tip portion of said handle portion and made of wet-type urethane sponge having a structure in which pores are uniformly distributed in a three-dimensional direction and continuous with one another, and the borders between adjacent pores are formed of a resin film and an opening formed in said resin film, and in which urethane resin dissolved in a solvent has been coagulated in coagulation liquid, said wet-type urethane sponge having a maximum pore diameter, which is measured with the bubble point method described in JIS K3832-1990, of not less than 62 μm and not more than 113 μm. a flexible handle portion ; and a spherical tip portion provided at a tip portion of said handle portion and made of wet-type urethane sponge having a structure in which pores are uniformly distributed in a three-dimensional direction and continuous with one another, and the borders between adjacent pores are formed of a resin film and an opening formed in said resin film, and in which urethane resin dissolved in a solvent has been coagulated in coagulation liquid, said wet-type urethane sponge having a maximum pore diameter, which is measured with the bubble point method described in JIS K3832-1990, of not less than 62 μm and not more than 113 μm.
A mobile telecommunications system first base station (eNodeB_A) including a transmission and reception point, TRP , the TRP comprising circuitry configured to: transmit, to a second base station (eNodeB_B), a status indicator for switching the second base station (eNodeB_B) between an active state and an inactive state comprising deactivating selectively multiple remote radio heads (RRH-B1, ..., RRH-B6) connected to the second base station (eNodeB_B) based on the status indicator; detect a mobility of a user equipment , the user equipment being mounted to a vehicle ; and detect a movement direction of the vehicle , wherein the status indicator is transmitted along the movement direction of the vehicle for switching multiple remote radio heads of the second base station (eNodeB_B) between an active state and an inactive state, wherein the status indicator indicates a last activated remote radio head of the first base station (eNodeB_A) for determining whether and which remote radio heads of the second base station (eNodeB_B) should be activated; and wherein the second base station (eNodeB_B) is a neighboring base station. transmit, to a second base station (eNodeB_B), a status indicator for switching the second base station (eNodeB_B) between an active state and an inactive state comprising deactivating selectively multiple remote radio heads (RRH-B1, ..., RRH-B6) connected to the second base station (eNodeB_B) based on the status indicator; detect a mobility of a user equipment , the user equipment being mounted to a vehicle ; and detect a movement direction of the vehicle , wherein the status indicator is transmitted along the movement direction of the vehicle for switching multiple remote radio heads of the second base station (eNodeB_B) between an active state and an inactive state, wherein the status indicator indicates a last activated remote radio head of the first base station (eNodeB_A) for determining whether and which remote radio heads of the second base station (eNodeB_B) should be activated; and wherein the second base station (eNodeB_B) is a neighboring base station.
A method of preparing a photosensitive device, comprising: providing a structure having at least one first electrode and a bulk heterojunction, wherein said bulk heterojunction comprises at least one first small molecule organic photoactive material and at least one second small molecule organic photoactive material, wherein the first organic photoactive material is a squaraine; providing at least one solvent; vaporizing at least a portion of the solvent; and exposing at least a portion of the bulk heterojunction to the vaporized solvent, wherein said exposure to the vaporized solvent increases the crystallinity of at least one of the first or second organic photoactive materials. providing a structure having at least one first electrode and a bulk heterojunction, wherein said bulk heterojunction comprises at least one first small molecule organic photoactive material and at least one second small molecule organic photoactive material, wherein the first organic photoactive material is a squaraine; providing at least one solvent; vaporizing at least a portion of the solvent; and exposing at least a portion of the bulk heterojunction to the vaporized solvent, wherein said exposure to the vaporized solvent increases the crystallinity of at least one of the first or second organic photoactive materials.
Method of making a mixture of lithium difluoro(oxalato)borate Li[BF 2 C 2 O 4 ] and lithium tetrafluoroborate LiBF 4 as conducting salt in an electrolyte of a secondary lithium ion battery, comprising at least steps (S), (T2), (U) and (V): (S) mixing lithium oxalate and a complex of boron trifluoride with an ether in an organic solvent; (T2) heating the mixture obtained in step (S) under a pressure above atmospheric pressure; (U) separating off lithium difluoro(oxalato)borate and lithium tetrafluoroborate in the form of a solution in the solvent employed in step (S) from the mixture obtained in step (T2), wherein dissolved lithium difluoro(oxalato)borate and lithium tetrafluoroborate are separated off by filtration or centrifugation from the mixture obtained in step (T2); (V) isolating a mixture of lithium difluoro(oxalato)borate and lithium tetrafluoroborate from the solution obtained in step (U), wherein the mixture obtained in step (U) is cooled down, wherein the target compounds start precipitating and are isolated by filtration or centrifugation; or the solvent may be distilled off, and the target compounds are isolated as the remainder; wherein the organic solvent is selected from dialkyl carbonate or diaryl carbonate; wherein the reaction is carried out in the absence of a chloride-containing compound; wherein the reaction according to step (T2) is carried out in a sealed container such that during heating a pressure is developed; and wherein the formed and isolated lithium difluoro(oxalato)borate in step (V) is not subjected to further purification steps in order to remove lithium tetrafluoroborate from the mixture of lithium difluoro(oxalato)borate and lithium tetrafluoroborate. (S) mixing lithium oxalate and a complex of boron trifluoride with an ether in an organic solvent; (T2) heating the mixture obtained in step (S) under a pressure above atmospheric pressure; (U) separating off lithium difluoro(oxalato)borate and lithium tetrafluoroborate in the form of a solution in the solvent employed in step (S) from the mixture obtained in step (T2), wherein dissolved lithium difluoro(oxalato)borate and lithium tetrafluoroborate are separated off by filtration or centrifugation from the mixture obtained in step (T2); (V) isolating a mixture of lithium difluoro(oxalato)borate and lithium tetrafluoroborate from the solution obtained in step (U), wherein the mixture obtained in step (U) is cooled down, wherein the target compounds start precipitating and are isolated by filtration or centrifugation; or the solvent may be distilled off, and the target compounds are isolated as the remainder; wherein the organic solvent is selected from dialkyl carbonate or diaryl carbonate; wherein the reaction is carried out in the absence of a chloride-containing compound; wherein the reaction according to step (T2) is carried out in a sealed container such that during heating a pressure is developed; and wherein the formed and isolated lithium difluoro(oxalato)borate in step (V) is not subjected to further purification steps in order to remove lithium tetrafluoroborate from the mixture of lithium difluoro(oxalato)borate and lithium tetrafluoroborate.