mhurhangee/patent-ind-claim-en huggingface dataset:
A wound dressing assembly comprising: a. a wound cover having: i. a length and width greater than a height; ii. a first major surface having disposed thereon a wound cover pressure sensitive adhesive comprising a colloidal absorbent and being arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface wherein the second major surface of the wound cover is impervious to bodily fluids; and b. a carrier having: i. a length and width greater than a height; ii. a first major surface in facing relation and removably attached to the second major surface of the wound cover, the first major surface of the carrier having disposed thereon at least one pressure sensitive adhesive arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface of the carrier, wherein, after application of the wound cover to skin for use, the carrier is removable from the wound cover to leave the wound cover adhered to the skin. a. a wound cover having: i. a length and width greater than a height; ii. a first major surface having disposed thereon a wound cover pressure sensitive adhesive comprising a colloidal absorbent and being arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface wherein the second major surface of the wound cover is impervious to bodily fluids; and i. a length and width greater than a height; ii. a first major surface having disposed thereon a wound cover pressure sensitive adhesive comprising a colloidal absorbent and being arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface wherein the second major surface of the wound cover is impervious to bodily fluids; and b. a carrier having: i. a length and width greater than a height; ii. a first major surface in facing relation and removably attached to the second major surface of the wound cover, the first major surface of the carrier having disposed thereon at least one pressure sensitive adhesive arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface of the carrier, i. a length and width greater than a height; ii. a first major surface in facing relation and removably attached to the second major surface of the wound cover, the first major surface of the carrier having disposed thereon at least one pressure sensitive adhesive arranged and configured to adhere to mammalian skin during use; and iii. a second major surface , opposite the first major surface of the carrier,
A method of producing boron trichloride, comprising performing reaction between chlorine gas in a gas containing the chlorine gas and particulate boron carbide in a state in which the boron carbide flows in the gas containing the chlorine gas, wherein the boron carbide is dropped from the upper portion of the reaction container toward the bottom portion of the reaction container and the gas containing the chlorine gas is introduced into the reaction container in the opposite direction of the movement of the boron carbide, wherein the reaction between the chlorine gas in the gas containing the chlorine gas and the boron carbide is continuously performed while continuously supplying the gas containing the chlorine gas and the boron carbide into a reaction container and continuously exhausting a reaction product of the gas containing the chlorine gas and the boron carbide from the reaction container, and wherein unreacted boron carbide is recovered in a receiving container that is placed below the reaction container and that communicates with the lower end of the reaction container.
A method performed by an access device , the method comprising: sending from the access device to a user equipment, UE , on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF ; sending from the access device to the UE a radio resource control, RRC, command indication to order the UE to switch from using the first DCI set to using a second DCI set; characterized in that the RRC command indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set such that after the UE is caused to reconfigure for switching from monitoring the first DCI set to monitoring the second DCI set, the UE is caused to temporarily monitors both the first DCI set and the second DCI set on the PDCCH; and wherein the first DCI set comprises a set of DCI formats having a first CIF size, and wherein the second DCI set comprises a set of DCI formats having a second different CIF size. sending from the access device to a user equipment, UE , on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF ; sending from the access device to the UE a radio resource control, RRC, command indication to order the UE to switch from using the first DCI set to using a second DCI set; characterized in that the RRC command indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set such that after the UE is caused to reconfigure for switching from monitoring the first DCI set to monitoring the second DCI set, the UE is caused to temporarily monitors both the first DCI set and the second DCI set on the PDCCH; and wherein the first DCI set comprises a set of DCI formats having a first CIF size, and wherein the second DCI set comprises a set of DCI formats having a second different CIF size.
A separator for a rechargeable lithium battery, comprising a porous substrate and a coating layer disposed on at least one surface of the porous substrate , wherein the coating layer comprises organic filler particles, fluorine-based organic binder particles, and (meth)acryl-based organic binder particle, the separator being characterised in that , an average particle diameter of the organic filler particle is equal to or greater than an average particle diameter of the fluorine-based organic binder particle, and the fluorine-based organic binder particle is coated on the porous substrate as a part of the coating layer in an amount of less than 0.1 g/m 2 per surface.
A motor control apparatus , which performs motor (M) control, wherein the motor control apparatus comprises: a control portion , configured to control action of the motor (M); a motor replacement detection portion , configured to detect replacement of the motor (M); a switching portion , configured to obtain usage information of the motor (M) to determine whether an encoder of the motor (M) is an incremental encoder or a batteryless absolute encoder, and switch the control portion between execution or non-execution of limiting processing; and an acceptance portion , configured to accept input from a user, wherein the motor control apparatus is characterized in that : when the motor replacement detection portion detects the replacement of the motor (M), in response to the motor (M) carrying a batteryless absolute encoder that always keeps absolute location information of the motor (M), the switching portion is configured to switch the control portion to execute the limiting processing for limiting the action of the motor (M), at least until the acceptance portion accepts, from the user, input of confirmation information of a confirmed intention of the replacement of the motor (M), and the switching portion is configured to switch the control portion not to execute the limiting processing for limiting the action of the motor (M) in a case in which the encoder of the motor (M) is an incremental encoder. a control portion , configured to control action of the motor (M); a motor replacement detection portion , configured to detect replacement of the motor (M); a switching portion , configured to obtain usage information of the motor (M) to determine whether an encoder of the motor (M) is an incremental encoder or a batteryless absolute encoder, and switch the control portion between execution or non-execution of limiting processing; and an acceptance portion , configured to accept input from a user, wherein the motor control apparatus is characterized in that : when the motor replacement detection portion detects the replacement of the motor (M), in response to the motor (M) carrying a batteryless absolute encoder that always keeps absolute location information of the motor (M), the switching portion is configured to switch the control portion to execute the limiting processing for limiting the action of the motor (M), at least until the acceptance portion accepts, from the user, input of confirmation information of a confirmed intention of the replacement of the motor (M), and the switching portion is configured to switch the control portion not to execute the limiting processing for limiting the action of the motor (M) in a case in which the encoder of the motor (M) is an incremental encoder.
A light-emitting device comprising a set of nanowires (NTi) over the whole surface of a substrate , characterized in that : - it comprises at least a first series of first nanowires and a second series of second nanowires; - said first series comprising first nanowires referred to as active nanowires (NTi a ) capable of emitting light under electrical control, connected between a first type of electrical contact and a second type of electrical contact in order to allow said device to emit light under electrical control, said first nanowires being covered by at least one conducting layer being transparent at the emission wavelength of said light-emitting device, said layer being in contact with said first type of electrical contact; - said second series comprising second nanowires referred to as contact nanowires (NTi c ) encapsulated within a metal layer allowing said first type of electrical contact to be formed; - the second type of electrical contact being situated on the back face of said substrate, opposite to the face comprising said nanowires and being provided by a conducting layer facing at least said first series of nanowires. - it comprises at least a first series of first nanowires and a second series of second nanowires; - said first series comprising first nanowires referred to as active nanowires (NTi a ) capable of emitting light under electrical control, connected between a first type of electrical contact and a second type of electrical contact in order to allow said device to emit light under electrical control, said first nanowires being covered by at least one conducting layer being transparent at the emission wavelength of said light-emitting device, said layer being in contact with said first type of electrical contact; - said second series comprising second nanowires referred to as contact nanowires (NTi c ) encapsulated within a metal layer allowing said first type of electrical contact to be formed; - the second type of electrical contact being situated on the back face of said substrate, opposite to the face comprising said nanowires and being provided by a conducting layer facing at least said first series of nanowires.
An anchor delivery system for treatment of body tissue, comprising: an anchor assembly including a first anchor component, second anchor component, and a connector; a needle assembly, wherein the first anchor component is positioned in the needle assembly; and a delivery device including a needle assembly , a spool assembly configured to control the position of the needle assembly, a trigger assembly configured to control severing of the connector of the anchor assembly, characterized in that the delivery device includes a first actuator , a second actuator and a third actuator ; wherein the first actuator is configured to be directly actuated by a user to advance both the needle assembly and a portion of the anchor assembly into the body tissue, wherein the second actuator (1 10) is configured to be directly actuated by the user to withdraw the needle assembly from the body tissue and wherein the third actuator is configured to be directly actuated by the user to lock the second anchor component to the connector. an anchor assembly including a first anchor component, second anchor component, and a connector; a needle assembly, wherein the first anchor component is positioned in the needle assembly; and a delivery device including a needle assembly , a spool assembly configured to control the position of the needle assembly, a trigger assembly configured to control severing of the connector of the anchor assembly, characterized in that the delivery device includes a first actuator , a second actuator and a third actuator ; wherein the first actuator is configured to be directly actuated by a user to advance both the needle assembly and a portion of the anchor assembly into the body tissue, wherein the second actuator (1 10) is configured to be directly actuated by the user to withdraw the needle assembly from the body tissue and wherein the third actuator is configured to be directly actuated by the user to lock the second anchor component to the connector.
Method for producing a three-dimensional object from drops of a plurality of materials (A, B) which are hardened in situ, said materials being present in the starting condition in a liquid phase or being liquefied for processing and prepared, mixed and homogenised by means of a plasticising unit of an injection assembly, said plasticising unit being known from injection moulding technology, wherein the object has at least one material changeover region in which a changeover takes place from one material (A) of the plurality of materials to another material (B) of the plurality of materials, wherein the materials are fed in separately and, in the material changeover region , drops of one material are placed alongside drops of the other material in a boundary surface structure such that they overlap mechanically and automatically harden there, characterised in that the drops of the materials (A, B) in the material changeover region are varied relative to one another with regard to the spacing of the drops from one another within each material (A, B) and/or with regard to the drop sizes of the materials (A, B) relative to one another and form the boundary surface structure of the drops in situ, wherein properties of the materials (A, B) to be joined to one another and/or process parameters of the method are adjusted to one another during preparation and on discharging and/or on placement on the object for influencing cooling processes of the materials taking place alongside one another, wherein the materials (A, B) are connected to one another in positive-locking manner or are joined to one another in force-locking manner.
A method for cathodic arc deposition from a first cathode and a second cathode , the method comprising: placing one or more substrates in a chamber ; generating an arc between the first cathode and an anode to deposit a first material from the first cathode; generating an arc between the second cathode and the anode to deposit a second material from the second cathode; and shifting a relative position of a magnet and the first and second cathodes to shift from depositing the first material to depositing the second material; and further comprising: vertically moving substrates from a first position associated with deposition from the first cathode to a second position associated with deposition from the second cathode. placing one or more substrates in a chamber ; generating an arc between the first cathode and an anode to deposit a first material from the first cathode; generating an arc between the second cathode and the anode to deposit a second material from the second cathode; and shifting a relative position of a magnet and the first and second cathodes to shift from depositing the first material to depositing the second material; and further comprising: vertically moving substrates from a first position associated with deposition from the first cathode to a second position associated with deposition from the second cathode.
A urinary catheter assembly comprising: an elongate catheter body (401; 501; 601) having a proximal end (403; 503; 603) and a distal end (402; 502; 602); a first sleeve portion (406; 506; 606) comprising a semipermeable membrane, wherein the first sleeve portion (406; 506; 606) is disposed on an outer surface of at least one portion of the catheter body (401; 501; 601); and a first instillation lumen (410; 509; 607) at the proximal end (403; 503; 603) of the catheter body (401; 501; 601), wherein the first instillation lumen (410; 509; 607) is in fluid communication with the first sleeve portion (406; 506; 606); characterized in that the urinary catheter assembly further comprises: a pump in fluid communication with said first instillation lumen (410; 509; 607); wherein the pump is operable to continuously move a first fluid through the first instillation lumen (410; 509; 607) to the first sleeve portion (406; 506; 606) and to continuously and circumferentially efflux the first fluid out of the semipermeable membrane of the first sleeve portion (406; 506; 606). an elongate catheter body (401; 501; 601) having a proximal end (403; 503; 603) and a distal end (402; 502; 602); a first sleeve portion (406; 506; 606) comprising a semipermeable membrane, wherein the first sleeve portion (406; 506; 606) is disposed on an outer surface of at least one portion of the catheter body (401; 501; 601); and a first instillation lumen (410; 509; 607) at the proximal end (403; 503; 603) of the catheter body (401; 501; 601), wherein the first instillation lumen (410; 509; 607) is in fluid communication with the first sleeve portion (406; 506; 606); a pump in fluid communication with said first instillation lumen (410; 509; 607); wherein the pump is operable to continuously move a first fluid through the first instillation lumen (410; 509; 607) to the first sleeve portion (406; 506; 606) and to continuously and circumferentially efflux the first fluid out of the semipermeable membrane of the first sleeve portion (406; 506; 606).
A liquid separator for a gas flow charged with liquid, having an inner volume , which has at least one baffle element and a collection area for the separated liquid, characterized in that a heat-conducting element made of a material with good heat conductivity is arranged in the collection area and protrudes in the direction of the at least one baffle element into the gas flow in the inner volume , wherein the baffle element is made from a material which conducts heat less well than the heat-conducting element .
Stabilizer for a lower link of a three-point suspension system of an agricultural tractor, wherein the stabilizer has at least one tube in which at least one piston is held in a longitudinally displaceable manner, said piston being elastically coupled to the at least one tube by way of at least one spring , wherein the displaceability of the at least one piston can be cancelled by way of at least one arresting yoke , wherein, in the region of an end of the at least one piston and/or tube , there is provided at least one recess which axially supports at least one abutment in order to determine the maximum length of the stabilizer , characterized in that , in the at least one recess , the at least one abutment is held in the form of an elastically deformable wire ring, the diameter of which is at most 17 times the thickness thereof in a radial direction .
A targeted therapeutic comprising: a lysosomal enzyme; and a lysosomal targeting moiety selected from a SORT1 peptide, a SORT1 propeptide, a progranulin peptide, and a prosaposin peptide, or a fragment thereof, wherein said peptide or fragment binds to SORT1. a lysosomal enzyme; and a lysosomal targeting moiety selected from a SORT1 peptide, a SORT1 propeptide, a progranulin peptide, and a prosaposin peptide, or a fragment thereof, wherein said peptide or fragment binds to SORT1.
Ballistic laminate for the manufacture of a ballistic protection structure, the laminate comprising at least a first textile element and at least a second textile element , the at least first textile element comprising a weft made of a plurality of non-ballistic threads having a count less than 40 dtex and a warp made of a plurality of ballistic threads having a count between 280 and 600 dtex, the at least second textile element comprising a weft made of a plurality of ballistic threads having a count between 280 and 600 dtex and a warp made of a plurality of non-ballistic threads having a count less than 40 dtex, wherein the ratio R between the count of the ballistic threads (tfB) and the count of the non-ballistic threads (tfnB) is between 5 and 120, in accordance with the formula 5<R<120, where R = tfB/ tfnB, and wherein the dynamically measured mechanical strength of the ballistic threads is at least 20% higher than the static strength of the same threads.
An implant having a movable implant component for a functionalization of the implant , in order to control functions in a targeted manner such as a change in geometry in length, volume or surface, an additional anchoring of the implant or a release of drug depots, characterized in that the movable implant component comprises a prestressed system held by a triggering mechanism , wherein the triggering mechanism comprises an actuator formed with a shape-memory metal and a structural change in the shape-memory metal and thus the triggering, that is, the release of the prestressed system , can be achieved by a wireless energy input, so that the implant component can be moved. characterized in that the movable implant component comprises a prestressed system held by a triggering mechanism , wherein the triggering mechanism comprises an actuator formed with a shape-memory metal and a structural change in the shape-memory metal and thus the triggering, that is, the release of the prestressed system , can be achieved by a wireless energy input, so that the implant component can be moved.
A pressure foot assembly for embroidery machines, comprising a plurality of tongue-shaped pressure feet arranged equidistantly next to one another, the foot regions of said pressure feet being arranged at a common carrier , characterized in that the pressure feet , spaced apart from the carrier , are connected to each other at their top ends by webs .