mhurhangee/ep-ind-claims huggingface dataset:
A blade mount configured to rotationally oscillate in a plane of motion, about an axis of rotation which passes through the blade mount crossing the plane of motion at a point of rotation, said blade mount comprising: a securing portion comprising two securing faces, wherein the two securing faces are angled such that the planes of the securing faces intersect with each other and with the plane of motion at a point of intersection such that the point of rotation lies between the point of intersection and the securing portion; characterised in that: the blade mount further comprises a locking member configured to urge a blade towards the securing portion in a first direction parallel to the plane of motion, thereby securing the blade between the locking member and the securing faces. a securing portion comprising two securing faces, wherein the two securing faces are angled such that the planes of the securing faces intersect with each other and with the plane of motion at a point of intersection such that the point of rotation lies between the point of intersection and the securing portion; characterised in that: the blade mount further comprises a locking member configured to urge a blade towards the securing portion in a first direction parallel to the plane of motion, thereby securing the blade between the locking member and the securing faces. the blade mount further comprises a locking member configured to urge a blade towards the securing portion in a first direction parallel to the plane of motion, thereby securing the blade between the locking member and the securing faces.
A method for producing a multi-layer seam of a packaging material, wherein at least three layers of packaging material, two inner layers (5, 5') and at least one outer layer, are joined in such a way that at least one first partial seam is produced between the two inner layers (5, 5'), which has a first seam strength, and at least one second partial seam, which is arranged in substantially the same position as the at least one first partial seam, is produced between at least two layers, one of the inner layers (5, 5') and one of the outer layers, which has a second seam strength, characterised in that that the first and second seam strengths are realised by the binding properties of at least one of the surfaces or of the material of the inner layers and of the at least one outer layer, at least in the region of the at least one first partial seam and/or of the at least one second partial seam, in such a way that a closure connection for a first utilisation cycle is formed by the first partial seam and a separating connection, which is not releasable when the closure connection is released by separating the inner layers from one another in order to open the packaging means, but is releasable during a second utilisation cycle, is formed by the second partial seam.
Clamping element (20, 30) comprising two opposing first and second clamping jaws (12, 13) forming an inner cavity to receive an insert with an inner cavity having a longitudinal axis to accommodate a rod-shaped element (101, 102), with each clamping jaw (12, 13) having a bore aligned with one another, wherein said clamping element (20, 30) comprises an abutting surface to accommodate a flange placed at one longitudinal end of the insert (60, 70), characterized in that the flange has the shape of a C and each free end of said flange comprises an inner surface facing the inner surface of the other free end of said flange, each clamping jaw (12, 13) further has an outer rim providing a recess between the two outer rims and acting as pressing surfaces to accommodate and hold free ends of the flange between the jaws (12, 13); and each clamping jaw (12,13) further comprises an inner nose to provide an additional inner abutment surface for the inner surfaces of the free ends of the flange.
An apparatus comprising: an energy source; a thermal applicator; an energy conduit; and a controller operatively coupled to the energy source, the thermal applicator configured to be disposed and secured circumferentially about a portion of a body of a human subject having a target nerve therein, in contact with the skin on the portion of the body and overlying a treatment portion of the target nerve, and to deliver thermal energy to the skin at least partially around the circumference of the portion of the body portion to raise the temperature of the treatment portion of the target nerve above a physiologic temperature, the energy conduit having a first portion coupled to the energy source and a second portion coupled to the thermal applicator and configured to have energy passed therethrough to convey energy from the energy source to the thermal applicator and for the thermal applicator to provide as thermal energy to the treatment portion of the target nerve, the controller configured to cause the energy source to provide energy to the thermal applicator via the energy conduit at a temperature and thermal energy delivery rate sufficient to raise the temperature of the treatment portion of the target nerve to a first temperature above the physiologic temperature and maintain the first temperature for a first time that is sufficient to achieve a reversible, at least partial blockade, or a pre-conditioning of the target nerve. an energy source; a thermal applicator; an energy conduit; and a controller operatively coupled to the energy source, the thermal applicator configured to be disposed and secured circumferentially about a portion of a body of a human subject having a target nerve therein, in contact with the skin on the portion of the body and overlying a treatment portion of the target nerve, and to deliver thermal energy to the skin at least partially around the circumference of the portion of the body portion to raise the temperature of the treatment portion of the target nerve above a physiologic temperature, the energy conduit having a first portion coupled to the energy source and a second portion coupled to the thermal applicator and configured to have energy passed therethrough to convey energy from the energy source to the thermal applicator and for the thermal applicator to provide as thermal energy to the treatment portion of the target nerve, the controller configured to cause the energy source to provide energy to the thermal applicator via the energy conduit at a temperature and thermal energy delivery rate sufficient to raise the temperature of the treatment portion of the target nerve to a first temperature above the physiologic temperature and maintain the first temperature for a first time that is sufficient to achieve a reversible, at least partial blockade, or a pre-conditioning of the target nerve.
A lighting system comprising one or more LED light sources, comprising at least one lighting module stackable on one or more further modules that are the same or similar, to form a lighting column and at least one stand or projecting or support structure in general; each module in turn comprising at least one support, at least one heat dissipating plate mounted on said support, said one or more light sources mounted on said dissipating plate, wherein said at least one support is provided with at least one aeration hole on which at least one aeration fan is arranged for forced cooling of said heat dissipating plate, characterized in that said dissipating plate comprises heat dissipating fins arranged adhering partially or totally to said support in such a manner that channels are formed within which - and through which - the forced air that is inserted into said channels by the action of said aeration fan can circulate freely, and wherein the diameter of the support is greater than the diameter of the heat dissipating plate.
A method of configuring an integrated circuit, the method comprising: receiving configuration data within a master die of a first IC, wherein the first IC comprises the master die and a slave die; determining a master segment and a slave segment of the configuration data; distributing the slave segment of the configuration data to the slave die of the first IC; determining, within the master die, whether configuration data comprises a segment of configuration data for a second IC serially coupled to a configuration output port of the first IC according to whether an integrated circuit boundary is detected within the configuration data, wherein the integrated circuit boundary indicates the segment of configuration data that follows is for the second IC; sending the segment of configuration data for the second IC from the master die to the slave die, wherein the slave die sends the segment of configuration data for the second IC back to the master die through a loopback connection prior to sending the segment of configuration data for the second IC to the configuration data output of the master die; and sending, via the master die within the first IC, the segment of the configuration data for the second IC to the second IC. receiving configuration data within a master die of a first IC, wherein the first IC comprises the master die and a slave die; determining a master segment and a slave segment of the configuration data; distributing the slave segment of the configuration data to the slave die of the first IC; determining, within the master die, whether configuration data comprises a segment of configuration data for a second IC serially coupled to a configuration output port of the first IC according to whether an integrated circuit boundary is detected within the configuration data, wherein the integrated circuit boundary indicates the segment of configuration data that follows is for the second IC; sending the segment of configuration data for the second IC from the master die to the slave die, wherein the slave die sends the segment of configuration data for the second IC back to the master die through a loopback connection prior to sending the segment of configuration data for the second IC to the configuration data output of the master die; and sending, via the master die within the first IC, the segment of the configuration data for the second IC to the second IC.
Floor panel comprising a substrate, a decorative layer and a transparent component, said decorative layer being positioned between the substrate and the transparent component, wherein at least one of the substrate, the decorative layer and the transparent component comprises a thermoplastic synthetic material, the transparent component having an upper surface opposite the decorative layer, wherein the floor panel further comprises an enhancement component, said enhancement component being provided on the upper surface of the transparent component, and a thickness (t ec) of the enhancement component varies along a cross section of the floor panel, wherein said enhancement component is provided on the upper surface of the transparent component in a discontinuous manner, so that said upper surface comprises one or more covered regions, which are covered by the enhancement component, and one or more free regions, which are not covered by the enhancement component, characterised in at least one of said covered regions comprises a surface area having a greater roughness than an adjacent surface area.
A baking paper dispenser, comprising a container with a removal opening and a stack of baking paper sheets stored in said container which are individually removable from the container through the removal opening, characterized in that the stack is stored in the container folded at least two-fold and that the removal opening is arranged adjacent to a convex folding region of the stack such that a baking paper sheet to be removed can be grasped and pulled out of the container through the removal opening.
An apparatus to manufacture an absorbent body of an absorbent article, the apparatus comprising: a freely rotatable suction drum which includes, in a circumferential surface (11 S), a pattern plate which has a shape that is complementary to an outer shape of the absorbent body and in which a pattern hole that penetrates through in a thickness direction is formed, and a molding portion formed inside the pattern hole of the pattern plate, which forms the absorbent body by accumulating a material of the absorbent body; and a supply device which includes a cover duct that covers a part of the circumferential surface of the suction drum, and which supplies the material of the absorbent body to the molding portion through the cover duct, wherein the apparatus is provided with an air jetting mechanism which includes an air jetting port, and the air jetting port rotates with the rotation of the suction drum and jets out air toward an internal space of the cover duct, from both of or either one of the pattern plate and the molding portion, the pattern plate includes an internal space facing portion which faces the internal space of the cover duct, in an external surface of the pattern plate which faces outward in a radial direction of the suction drum, the air jetting port is provided in the internal space facing portion, and the air jetting port is provided at positions adjacent to the pattern hole in the width direction. a freely rotatable suction drum which includes, in a circumferential surface (11 S), a pattern plate which has a shape that is complementary to an outer shape of the absorbent body and in which a pattern hole that penetrates through in a thickness direction is formed, and a molding portion formed inside the pattern hole of the pattern plate, which forms the absorbent body by accumulating a material of the absorbent body; and a supply device which includes a cover duct that covers a part of the circumferential surface of the suction drum, and which supplies the material of the absorbent body to the molding portion through the cover duct, wherein the apparatus is provided with an air jetting mechanism which includes an air jetting port, and the air jetting port rotates with the rotation of the suction drum and jets out air toward an internal space of the cover duct, from both of or either one of the pattern plate and the molding portion, the pattern plate includes an internal space facing portion which faces the internal space of the cover duct, in an external surface of the pattern plate which faces outward in a radial direction of the suction drum, the air jetting port is provided in the internal space facing portion, and the air jetting port is provided at positions adjacent to the pattern hole in the width direction.
A dental alignment apparatus for aligning and positioning at least two or more dental implant abutments or dental implant abutment assemblies in substantially parallel alignment relative to one another to ensure alignment relative to residual teeth and/or other abutments on the same and opposite jaw, the apparatus comprising: a) at least two alignment arm members having an elongated body including at least one receiving bore provided for associating with said dental implant abutment or dental implant abutment assembly; said alignment arm member having a substantially rectangular frame body including two parallel long sides and two parallel short ends defining an end thereof, the alignment arm including at least one borehole defined between said two parallel long sides and adjacent to one of said ends, wherein the end including the borehole is configured to have a recess along its length defining an opening along the length of said borehole such that said opening may be opened or closed therein defining a clamp alignment arm to clamp onto said dental implant abutment or dental implant abutment assembly, b) at least one alignment bridge for aligning along a second axis, said bridge having a substantially three dimensional rectangular frame construct comprising two substantially parallel surfaces (210a, b) along its length and two parallel ends (210c,d), said parallel surfaces (210a,b) defining a central recess, wherein said recess is adapted to receive said alignment arms therein providing for aligning said alignment arms with respect to each other. a) at least two alignment arm members having an elongated body including at least one receiving bore provided for associating with said dental implant abutment or dental implant abutment assembly; said alignment arm member having a substantially rectangular frame body including two parallel long sides and two parallel short ends defining an end thereof, the alignment arm including at least one borehole defined between said two parallel long sides and adjacent to one of said ends, wherein the end including the borehole is configured to have a recess along its length defining an opening along the length of said borehole such that said opening may be opened or closed therein defining a clamp alignment arm to clamp onto said dental implant abutment or dental implant abutment assembly, b) at least one alignment bridge for aligning along a second axis, said bridge having a substantially three dimensional rectangular frame construct comprising two substantially parallel surfaces (210a, b) along its length and two parallel ends (210c,d), said parallel surfaces (210a,b) defining a central recess, wherein said recess is adapted to receive said alignment arms therein providing for aligning said alignment arms with respect to each other.
A detection system comprising: an electrochemical sensor; measurement circuitry coupled to the electrochemical sensor and configured to measure an electrical characteristic of the electrochemical sensor; a controller coupled to the measurement circuitry, the controller being configured to provide an indication based on the measured electrical characteristic; and wherein the controller is further configured to generate an electrical disturbance to the electrochemical sensor, obtain a sensor recovery profile, and provide a diagnostic indication relative to the electrochemical sensor based on the sensor recovery profile, wherein the electrical disturbance is generated by momentarily shorting one conductor of the electrochemical sensor to ground. an electrochemical sensor; measurement circuitry coupled to the electrochemical sensor and configured to measure an electrical characteristic of the electrochemical sensor; a controller coupled to the measurement circuitry, the controller being configured to provide an indication based on the measured electrical characteristic; and wherein the controller is further configured to generate an electrical disturbance to the electrochemical sensor, obtain a sensor recovery profile, and provide a diagnostic indication relative to the electrochemical sensor based on the sensor recovery profile, wherein the electrical disturbance is generated by momentarily shorting one conductor of the electrochemical sensor to ground.
An electrical contactor assembly comprising: an electrical contactor; an electrical bus bar being constructed from a thermally conductive material; a panel; at least one post protruding through the panel and in contact with the electrical bus bar, the post being constructed from an electrically and thermally conductive material, wherein a first end of the at least one post is configured to electrically and thermally connect to the electrical contactor; characterized by: the panel being constructed from a thermally conductive material; and a liquid cooled heat sink thermally connected to a second end of the at least one post through the electrical bus bar, wherein the liquid cooled heat sink in operation circulates liquid coolant through the liquid cooled heat sink to absorb heat; wherein: the liquid cooled heat sink is interposed between the panel and the electrical bus bar; and wherein the liquid cooled heat sink is thermally connected to the panel and the electric bus bar. an electrical contactor; an electrical bus bar being constructed from a thermally conductive material; a panel; at least one post protruding through the panel and in contact with the electrical bus bar, the post being constructed from an electrically and thermally conductive material, wherein a first end of the at least one post is configured to electrically and thermally connect to the electrical contactor; characterized by: the panel being constructed from a thermally conductive material; and a liquid cooled heat sink thermally connected to a second end of the at least one post through the electrical bus bar, wherein the liquid cooled heat sink in operation circulates liquid coolant through the liquid cooled heat sink to absorb heat; wherein: the liquid cooled heat sink is interposed between the panel and the electrical bus bar; and wherein the liquid cooled heat sink is thermally connected to the panel and the electric bus bar. the panel being constructed from a thermally conductive material; and a liquid cooled heat sink thermally connected to a second end of the at least one post through the electrical bus bar, wherein the liquid cooled heat sink in operation circulates liquid coolant through the liquid cooled heat sink to absorb heat; wherein: the liquid cooled heat sink is interposed between the panel and the electrical bus bar; and wherein the liquid cooled heat sink is thermally connected to the panel and the electric bus bar. the liquid cooled heat sink is interposed between the panel and the electrical bus bar; and wherein the liquid cooled heat sink is thermally connected to the panel and the electric bus bar.
An inkjet print head comprising a plurality of a droplet jetting devices (10-10′′′) formed of a nozzle layer defining, for each droplet jetting device, a nozzle (50-50"'), a membrane layer carrying, on a membrane, a restrictor layer and an actuator (32-32′′′) for generating pressure waves in a liquid in a pressure chamber (20-20′′′) that is connected to the nozzle (50-50′′′), the actuator (32-32′′′) being positioned in an actuator chamber (34-34′′′) in the restrictor layer, and a distribution layer defining a supply line (18-18") for supplying the liquid to the pressure chamber (20-20"'), wherein the restrictor layer comprises an inlet restrictor (56-56′′′) and an outlet restrictor (80-80′′′) positioned on opposites sides of the actuator (32-32′′′), characterized in that a cross-section of the inlet restrictor (56-56′′′) is different from that of the outlet restrictor (80-80"'), wherein the cross-section of the inlet restrictor (56-56′′′) is smaller than that of the outlet restrictor (80-80′′′), preferably no greater than half of the cross-section of the outlet restrictor (80-80"'), characterised in that the inlet and outlet restrictors (56-56", 80-80') of neighboring droplet jetting devices (10-10′′′) alternate in position, such that the outlet restrictors (80-80′′′) and inlet restrictors (56-56′′′) of neighboring droplet jetting devices (10-10′′′) are respectively positioned adjacent one another, and wherein a single damper element (70-70') is formed in the distribution layer over each pair of neighboring outlet restrictors (80-80′′′).
A gold-colored steel sheet comprising a base material and a modified layer provided on an outermost surface layer of the base material, wherein the base material comprises 0.003wt% or less of N and 0.015wt% or less of C+N, wherein the modified layer is a TiN modified layer comprising 30wt% or more of Ti and 10wt% or more of N, and wherein the TiN modified layer has a thickness of 10nm or more, wherein alloy element contents in the TiN modified layer satisfy the following formula: 0.1 wt % ≤ C + Si + Al + Mn + Cr + Ni + Nb + Zr ≤ 35.0 wt % in which C, Si, Al, Mn, Cr, Ni, Nb and Zr mean the content (wt%) of each element.