mhurhangee/ep-ind-claims huggingface dataset:
Interior construction device, in particular for a mobile home, a caravan and/or a van, with a basic WC unit, which is arranged in a first configuration in a sanitary region, the basic WC unit being embodied such that it is at least partially movable in a mounted state, characterized by a wash basin cover unit, which is provided to cover a wash basin in at least one second configuration.
A moving body anti-collision device provided to avoid collisions of moving bodies, especially vehicles, which moving body anti-collision device is provided on one moving body (20,20A,20B,20C,20D,20E,20F,20G) and transmits signals to or receives signals from other moving body (20,20A,20B,20C,20D,20E,20F,20G), comprising; a transmission unit that transmits a millimeter-wave detection wave; a driving unit that is connected to the transmission unit and generates a driving signal to drive the transmission unit, where the driving unit determines the transmission intensity of the millimeter-wave detection wave according to a speed of the moving body (20,20A,20B,20C,20D,20E, 20F, 20G); one or more of a speed sensor that detects a speed of the moving body (20,20A,20B,20C,20D,20E,20F,20G), a receiving unit that receives a millimeter-wave detection wave sent from a transmission unit provided on the other moving body (20,20A,20B, 20C,20D,20E,20F,20G); wherein transmission intensity information of the moving body (20,20A,20B, 20C,20D,20E,20F,20G) is included in the millimeter-wave detection wave sent by the transmission unit, a calculation unit calculates a distance between the moving body (20,20A,20B,20C,20D,20E,20F,20G) and the other moving body (20,20A,20B,20C,20D,20E,20F,20G) in an area, where the moving bodies come close to each other and collision may occur, where the calculation is made based on the difference of the intensities of the millimeter-wave detection wave sent from the other moving body (20,20A, 20B,20C,20D,20E,20F,20G) and received by the receiving unit; and a collision determining unit determines, according to a calculation result given by the calculating unit, whether the moving body (20,20A, 20B,20C,20D,20E,20F,20G) collide with the other moving body (20,20A, 20B,20C,20D,20E,20F,20G).
Apparatus for producing an object by sequentially forming thin layers of a material one on top of the other responsive to data defining the object, the apparatus comprising: at least one printing head having a surface formed with at least one output orifice and controllable to dispense a photopolymer material in liquid form through the orifice; a lamp controllable to provide radiation that polymerizes the photopolymer wherein the lamp comprises a radiation source and a reflector that reflects light provided by the source, wherein the radiation source is a discharge type bulb; and a controller adapted to control the printing head to dispense the photopolymer and sequentially form the layers and the lamp to irradiate and polymerize the dispensed photopolymer; wherein a substantial portion of radiation provided by the lamp is directed so that it is incident at a substantially non-normal angle on the layers; and CHARACTERIZED IN THAT: the radiation source is mounted to an edge reflector of the reflector through suitable holes in the edge reflector and wherein contact ends of the radiation source are mounted to power sockets comprised in a housing that provide electrical contact of the radiation source to a power supply. at least one printing head having a surface formed with at least one output orifice and controllable to dispense a photopolymer material in liquid form through the orifice; a lamp controllable to provide radiation that polymerizes the photopolymer wherein the lamp comprises a radiation source and a reflector that reflects light provided by the source, wherein the radiation source is a discharge type bulb; and a controller adapted to control the printing head to dispense the photopolymer and sequentially form the layers and the lamp to irradiate and polymerize the dispensed photopolymer; wherein a substantial portion of radiation provided by the lamp is directed so that it is incident at a substantially non-normal angle on the layers; and CHARACTERIZED IN THAT: the radiation source is mounted to an edge reflector of the reflector through suitable holes in the edge reflector and wherein contact ends of the radiation source are mounted to power sockets comprised in a housing that provide electrical contact of the radiation source to a power supply.
A method comprising: a mobility management entity receiving an attach request for at least one device belonging to a group of devices; the mobility management entity obtaining an identity of the group of devices; and the mobility management entity allocating a first bearer identity for the group of devices, the mobility management entity sending a create session request to a serving gateway to cause the serving gateway to check, upon receipt of the create session request, if a bearer already exists for the group of devices with the allocated first bearer identity, and in response to the checking indicating the bearer with the allocated first bearer identity already does not exist, to cause the serving gateway to create a bearer, and then cause the serving gateway to send a create session request to a packet gateway. a mobility management entity receiving an attach request for at least one device belonging to a group of devices; the mobility management entity obtaining an identity of the group of devices; and the mobility management entity allocating a first bearer identity for the group of devices, the mobility management entity sending a create session request to a serving gateway to cause the serving gateway to check, upon receipt of the create session request, if a bearer already exists for the group of devices with the allocated first bearer identity, and in response to the checking indicating the bearer with the allocated first bearer identity already does not exist, to cause the serving gateway to create a bearer, and then cause the serving gateway to send a create session request to a packet gateway.
Container system for liquid consumable materials with exchangeable replacement containers made of material-saving, weight-optimising materials, in particular renewable and/or completely recyclable raw materials, which are designed to be connectable to a dosing pump, wherein the container system consists of a main container into which stand-up pouches serving as replacement containers are fixed when they are inserted in such a way that they can no longer be rotated along their longitudinal axis and this fixation is maintained during establishing and loosening the connection between the dosing pump and the stand-up pouches, characterised in that the fixation of the stand-up pouches is carried out by inserting elevations moulded onto on the upper side and/or on the weld-in part of spouts connected to the stand-up pouch into recesses in a container lid closing the main container.
A MEMS microphone comprising: a backplate having a backplate interior surface; and a diaphragm spaced from the backplate, the diaphragm being movably coupled with the backplate to form a variable capacitor, the backplate having a plurality of through-holes, at least two of the through-holes having an inner dimensional shape on the backplate interior surface, the inner dimensional shape having a plurality of convex portions and a plurality of concave portions. a backplate having a backplate interior surface; and a diaphragm spaced from the backplate, the diaphragm being movably coupled with the backplate to form a variable capacitor, the backplate having a plurality of through-holes, at least two of the through-holes having an inner dimensional shape on the backplate interior surface, the inner dimensional shape having a plurality of convex portions and a plurality of concave portions.
An encapsulated semiconductor device (20"') comprising a flexible substrate and a semiconductor arrangement provided on the flexible substrate, wherein a barrier layer is provided between the semiconductor arrangement and the flexible substrate and an encapsulation layer is provided at least partially covering the semiconductor arrangement, wherein the barrier layer successively comprises, in a direction from the flexible substrate towards the semiconductor arrangement, an outer inorganic barrier layer, an organic barrier layer, and an inner inorganic barrier layer, wherein the encapsulation layer includes an outer inorganic encapsulation layer, an organic encapsulation layer and an inner inorganic encapsulation layer in this order, wherein the outer inorganic barrier layer extends beyond the organic barrier layer and a lateral surface of the organic encapsulation layer and the outer inorganic encapsulation layer of the encapsulation layer abuts a main surface of the outer inorganic barrier layer opposite the substrate, wherein the organic barrier layer extends beyond the inner inorganic barrier layer and a lateral surface of the inner inorganic encapsulation layer of the encapsulation layer abuts a main surface of the organic barrier layer opposite the substrate, a lateral surface of the organic barrier layer abutting a main surface of the organic encapsulation layer opposite the outer inorganic encapsulation layer.
A laminate sheet with a shape for an armature of an inner stator of a generator, which laminate sheet comprises - a single armature tooth protrusion, a first side part (E hi) and a complementary second side part (E lo); - a portion of an inwardly directed notch on an outer edge of said laminate sheet arranged on the first side part (E hi) in order to form a complete inwardly directed notch with a complementary side part (E hi) of a reversed laminate sheet with the same shape; and - a portion of an outwardly directed notch on an inner edge of said laminate sheet arranged on the second side part (E lo) in order to form a complete outwardly directed notch with a complementary side part (E lo) of a reversed laminate sheet with the same shape; such that an arrangement of alternating laminate sheets and reversed laminate sheets gives an annular laminate layer for the armature. - a single armature tooth protrusion, a first side part (E hi) and a complementary second side part (E lo); - a portion of an inwardly directed notch on an outer edge of said laminate sheet arranged on the first side part (E hi) in order to form a complete inwardly directed notch with a complementary side part (E hi) of a reversed laminate sheet with the same shape; and - a portion of an outwardly directed notch on an inner edge of said laminate sheet arranged on the second side part (E lo) in order to form a complete outwardly directed notch with a complementary side part (E lo) of a reversed laminate sheet with the same shape;
A wood or resin cutting tool, comprising: a base material made of steel or a cemented carbide alloy; and a coating formed on at least a rake face of the base material, wherein the coating has a periodic structure layer made of chromium oxynitride, in which high oxygen regions having a high concentration of oxygen in a texture thereof and low oxygen regions having a lower concentration of oxygen in a texture thereof than the high oxygen regions periodically exist in a thickness direction of the periodic structure layer, and the high oxygen regions and the low oxygen regions are formed to exist at a period of 1 nm to 150 nm, wherein the periodic structure layer is made of chromium oxynitride whose entire composition, including the high oxygen regions and the low oxygen regions, is represented by (Cr 1-a X a)N 1-b O b, wherein X includes at least one element selected from the group of B, C, Al, Si, Ti, V, Ni, Cu, Y, Zr, Nb, Mo, Ta, and W, and 0≤a≤0.5 and 0<b<0.6. a base material made of steel or a cemented carbide alloy; and a coating formed on at least a rake face of the base material, wherein the coating has a periodic structure layer made of chromium oxynitride, in which high oxygen regions having a high concentration of oxygen in a texture thereof and low oxygen regions having a lower concentration of oxygen in a texture thereof than the high oxygen regions periodically exist in a thickness direction of the periodic structure layer, and the high oxygen regions and the low oxygen regions are formed to exist at a period of 1 nm to 150 nm, wherein the periodic structure layer is made of chromium oxynitride whose entire composition, including the high oxygen regions and the low oxygen regions, is represented by (Cr 1-a X a)N 1-b O b, wherein X includes at least one element selected from the group of B, C, Al, Si, Ti, V, Ni, Cu, Y, Zr, Nb, Mo, Ta, and W, and 0≤a≤0.5 and 0<b<0.6.
A brush manufacturing device in which a brush body which is part of the brush to be manufactured is further processed, the brush body having a rear side and a front side from which bristles project in the finished state of the brush, comprising brush body holders, wherein at least one brush body is adapted to be detachably inserted into each brush body holder to form an interlocking temporary unit which is conveyed into the device, through the device and out of the device, a device-side positioning unit which, during the further processing of the brush body, holds the unit and positions it in the device by engaging the brush body holder, wherein the brush body holders are configured to have a mechanical stop against a moving of the brush body out of the brush body holder in the direction from the rear side to the front side, and wherein the brush body holders have a plate-like shape with a receiving opening for the brush body, the receiving opening being defined by a retaining edge engaging the side edge of the brush body, characterized in that the plate-shaped brush body holders are slotted so that portions are produced which are movable relative to each other, permit an insertion and removal of the brush body, form a nondestructively detachable latching connection with the brush body, and press against the brush body when the latter is received. brush body holders, wherein at least one brush body is adapted to be detachably inserted into each brush body holder to form an interlocking temporary unit which is conveyed into the device, through the device and out of the device, a device-side positioning unit which, during the further processing of the brush body, holds the unit and positions it in the device by engaging the brush body holder, wherein the brush body holders are configured to have a mechanical stop against a moving of the brush body out of the brush body holder in the direction from the rear side to the front side, and wherein the brush body holders have a plate-like shape with a receiving opening for the brush body, the receiving opening being defined by a retaining edge engaging the side edge of the brush body, characterized in that the plate-shaped brush body holders are slotted so that portions are produced which are movable relative to each other, permit an insertion and removal of the brush body, form a nondestructively detachable latching connection with the brush body, and press against the brush body when the latter is received.
A method for monitoring use of an absorbent product worn by a wearer, characterised in that the method comprises at least the steps of: - obtaining capacity information related to the capacity of the absorbent product by means of a mobile device, - obtaining, by means of the mobile device, intake information indicative of intake of fluid and/or solid edible material by the wearer, - obtaining, by means of the mobile device, voiding information indicative of urinary and/or faecal voiding by the wearer, - predicting, by means of the mobile device, based on the intake and voiding information, future voiding by the wearer, - determining (S6a), by means of the mobile device, based on said capacity information, a first parameter indicative of the amount of urine and/or faeces that can be absorbed by the product, - determining (S6b), by means of the mobile device, based on the predicted future voiding by the wearer, a second parameter indicative of a predicted amount of urine and/or faeces voided by the wearer at a future point in time, - comparing (S6c) said first and said second parameter, and - providing (S6d), by means of the mobile device, said product-related information based on said comparison, wherein said product-related information comprises a recommendation to exchange the product for another absorbent product having higher or lower capacity than the currently worn product, and wherein the mobile device is mobile phone, a personal digital assistant, a tablet computer or any other hand-held computing device. - obtaining capacity information related to the capacity of the absorbent product by means of a mobile device, - obtaining, by means of the mobile device, intake information indicative of intake of fluid and/or solid edible material by the wearer, - obtaining, by means of the mobile device, voiding information indicative of urinary and/or faecal voiding by the wearer, - predicting, by means of the mobile device, based on the intake and voiding information, future voiding by the wearer, - determining (S6a), by means of the mobile device, based on said capacity information, a first parameter indicative of the amount of urine and/or faeces that can be absorbed by the product, - determining (S6b), by means of the mobile device, based on the predicted future voiding by the wearer, a second parameter indicative of a predicted amount of urine and/or faeces voided by the wearer at a future point in time, - comparing (S6c) said first and said second parameter, and - providing (S6d), by means of the mobile device, said product-related information based on said comparison,
A method for controlling a network slice, wherein the method is applied to a system that comprises a control device and at least two forwarding devices, and the method comprises: receiving, by a first forwarding device, a first control packet sent by the control device, wherein the first control packet carries N pieces of control information and N network slice identifiers, the N pieces of control information are in a one-to-one correspondence with the N network slice identifiers, and a network slice identifier i corresponding to control information i is an identifier of a network slice controlled by using the control information i, wherein i∈[1, N], and N≥1; determining, by the first forwarding device, M pieces of first control information from the N pieces of control information based on the N network slice identifiers, wherein the M pieces of first control information are in a one-to-one correspondence with M first network slices, and the M first network slices are borne on the first forwarding device, wherein M≥1; and controlling, by the first forwarding device, a first network slice j based on first control information j, wherein j∈[1, M]; wherein the N pieces of control information comprise second control information in addition to the first control information, the second control information is used to control a second network slice, and the second network slice is borne on a second forwarding device. receiving, by a first forwarding device, a first control packet sent by the control device, wherein the first control packet carries N pieces of control information and N network slice identifiers, the N pieces of control information are in a one-to-one correspondence with the N network slice identifiers, and a network slice identifier i corresponding to control information i is an identifier of a network slice controlled by using the control information i, wherein i∈[1, N], and N≥1; determining, by the first forwarding device, M pieces of first control information from the N pieces of control information based on the N network slice identifiers, wherein the M pieces of first control information are in a one-to-one correspondence with M first network slices, and the M first network slices are borne on the first forwarding device, wherein M≥1; and controlling, by the first forwarding device, a first network slice j based on first control information j, wherein j∈[1, M]; wherein the N pieces of control information comprise second control information in addition to the first control information, the second control information is used to control a second network slice, and the second network slice is borne on a second forwarding device.
Method for manufacturing a shaped cross-linked hyaluronic acid product, comprising the steps of: (i) providing a hyaluronic acid substrate dissolved in a first liquid medium, which is an aqueous solution, without any cross-linking; (ii) precipitating the hyaluronic acid substrate by subjecting it to a second liquid medium comprising an amount of one or more first water-soluble organic solvent(s) giving precipitating conditions for hyaluronic acid without any cross-linking; wherein step (i) and/or step (ii) further comprises arranging the hyaluronic acid substrate in a desired shape; and (iii) subjecting the non-cross-linked precipitated hyaluronic acid substrate in the desired shape to a single cross-linking reaction in a third liquid medium having a pH of 11.5 or higher and comprising one or more polyfunctional cross-linking agent(s) and an amount of one or more second organic solvent(s) giving precipitating conditions for hyaluronic acid, under suitable conditions to obtain a precipitated, shaped cross-linked hyaluronic acid product. (i) providing a hyaluronic acid substrate dissolved in a first liquid medium, which is an aqueous solution, without any cross-linking; (ii) precipitating the hyaluronic acid substrate by subjecting it to a second liquid medium comprising an amount of one or more first water-soluble organic solvent(s) giving precipitating conditions for hyaluronic acid without any cross-linking; wherein step (i) and/or step (ii) further comprises arranging the hyaluronic acid substrate in a desired shape; and (iii) subjecting the non-cross-linked precipitated hyaluronic acid substrate in the desired shape to a single cross-linking reaction in a third liquid medium having a pH of 11.5 or higher and comprising one or more polyfunctional cross-linking agent(s) and an amount of one or more second organic solvent(s) giving precipitating conditions for hyaluronic acid, under suitable conditions to obtain a precipitated, shaped cross-linked hyaluronic acid product.