mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus comprising: a substrate having a display area (DA) at which a display device is located to display an image, and a non-display area (NDA) around the display area, wherein the non-display area comprises a bending area (BA) bent about a bending axis (BAX); an encapsulation layer over the display area; a touchscreen layer over the encapsulation layer and comprising a touch electrode ; a touch wire connected to the touch electrode, extending from an upper portion of the encapsulation layer to the bending area; a fan-out wire configured to apply an electric signal to the display area and at least partially disposed at the bending area; and a terminal unit disposed at one end of the non-display area and including a plurality of terminals , wherein the fan-out wire is connected to the terminal unit and the fan-out wire extends from the display area to the terminal unit across the bending area, wherein the touch wire is a continuous wire that extends from the display area to the terminal unit, crossing the bending area, wherein the touch wire and the fan-out wire are on different layers from each other in the bending area, and wherein an organic material layer is over the fan-out wire and under the touch wire in the bending area. a substrate having a display area (DA) at which a display device is located to display an image, and a non-display area (NDA) around the display area, wherein the non-display area comprises a bending area (BA) bent about a bending axis (BAX); an encapsulation layer over the display area; a touchscreen layer over the encapsulation layer and comprising a touch electrode ; a touch wire connected to the touch electrode, extending from an upper portion of the encapsulation layer to the bending area; a fan-out wire configured to apply an electric signal to the display area and at least partially disposed at the bending area; and a terminal unit disposed at one end of the non-display area and including a plurality of terminals , wherein the fan-out wire is connected to the terminal unit and the fan-out wire extends from the display area to the terminal unit across the bending area, wherein the touch wire is a continuous wire that extends from the display area to the terminal unit, crossing the bending area, wherein the touch wire and the fan-out wire are on different layers from each other in the bending area, and wherein an organic material layer is over the fan-out wire and under the touch wire in the bending area.
Collar-type massage device comprising spaced apart massage elements , wherein a flexible collar housing is provided from which a flexible velcro device protrudes laterally, characterized in that at least two dimensionally stable elongated massage organs are provided, wherein the flexible collar housing has at least two separate storage spaces oriented in the transverse direction of the collar-type massage device for housing the elongated massage organs , wherein the storage spaces are limited by an inner surface element located close to the body and a storage space limiting surface element located remotely from the body, wherein the storage space limiting surface element is corrugatedly profiled relative to the inner surface element of the flexible collar housing in the transverse direction of the collar-type massage device and is firmly connected to the inner surface element , and wherein each massage organ is provided with an electric motor and at least two massage elements spaced apart in the longitudinal direction of the massage organ and rotatably drivable by the electric motor .
A method for fabricating a porous structure comprising the steps of: creating a model of a porous structure, wherein the model defines at least one strut of the porous structure, wherein the at least one strut comprises a first node , a second node , and a body between the first node and the second node ; assigning a local coordinate system to the at least one strut , wherein the local coordinate system is different from a machine system that defines a build plane of the machine; the method further comprising modifying a dimension of the at least one strut in a direction perpendicular to the build plane, wherein the modifying step does not affect any changes in the build plane; and fabricating the porous structure according to the model having the modified at least one strut by exposing fusible material to an energy source. creating a model of a porous structure, wherein the model defines at least one strut of the porous structure, wherein the at least one strut comprises a first node , a second node , and a body between the first node and the second node ; assigning a local coordinate system to the at least one strut , wherein the local coordinate system is different from a machine system that defines a build plane of the machine; the method further comprising modifying a dimension of the at least one strut in a direction perpendicular to the build plane, wherein the modifying step does not affect any changes in the build plane; and fabricating the porous structure according to the model having the modified at least one strut by exposing fusible material to an energy source.
An apparatus for sensing particulate matter in a fluid, the apparatus comprising: a fluid flow conduit fluidically connected to an interaction chamber ; a light source positioned to illuminate the interaction chamber ; and a light detector assembly positioned to receive light scattered by particulate matter present in the interaction chamber , the light detector assembly comprising: a light detector ; characterized in that the light detector assembly further comprises: an optical element , the optical element configured to allow only scattered light within a threshold solid angle (β') to reach the light detector . a fluid flow conduit fluidically connected to an interaction chamber ; a light source positioned to illuminate the interaction chamber ; and a light detector assembly positioned to receive light scattered by particulate matter present in the interaction chamber , the light detector assembly comprising: a light detector ; characterized in that the light detector assembly further comprises: an optical element , the optical element configured to allow only scattered light within a threshold solid angle (β') to reach the light detector . a light detector ; characterized in that the light detector assembly further comprises: an optical element , the optical element configured to allow only scattered light within a threshold solid angle (β') to reach the light detector .
Dual voltage battery for a vehicle, comprising a plurality of battery cells, where in each case a group of battery cells are connected to a number of battery cell blocks (A1 A2, A3) and comprising battery electronics with a plurality of power switching elements (P1 +, P2+, P3+, P2-, P3-, S1, S2, S3), where in a first connection arrangement of the battery cell blocks (A1 A2, A3) a first voltage is provided and where in a second connection arrangement of the battery cell blocks (A1 A2, A3) a second voltage is provided, characterized in that the battery cell blocks (A1 A2, A3) can be connected to the power switching elements optionally in series and/or in parallel and a block current sensor with a measuring resistor is allocated to at least individual battery cell blocks (A1 A2, A3), which measuring resistor is designed to measure block current through the one allocated battery cell block (A1 A2, A3).
An antibody that binds human PD-1 and comprises a combination of a heavy chain variable region (VH) and a light chain variable region (VL) selected from the group consisting of: (a) a VH comprising complementarity determining regions (CDRs) 1, 2, and 3 as set forth in SEQ ID NOS: 17, 40, and 63, respectively; and a VL comprising CDRs 1, 2 and 3 as set forth in SEQ ID NOS: 86, 109, and 132, respectively; or, (b) a VH comprising CDRs 1, 2, and 3 as set forth in SEQ ID NOS: 2, 25, and 48, respectively; and a VL comprising CDRs 1, 2, and 3 as set forth in SEQ ID NOS: 71, 94, and 117, respectively. (a) a VH comprising complementarity determining regions (CDRs) 1, 2, and 3 as set forth in SEQ ID NOS: 17, 40, and 63, respectively; and a VL comprising CDRs 1, 2 and 3 as set forth in SEQ ID NOS: 86, 109, and 132, respectively; or, (b) a VH comprising CDRs 1, 2, and 3 as set forth in SEQ ID NOS: 2, 25, and 48, respectively; and a VL comprising CDRs 1, 2, and 3 as set forth in SEQ ID NOS: 71, 94, and 117, respectively.
Process for winding a filament around a winding support having a general cylindrical shape with dome-shaped longitudinal ends and having a roll axis , the winding support being held by a holding device fixed to a base , the process comprising steps, occurring in synchronization, consisting of: (i) feeding a filament , by means of at least one feeding device , towards the winding support , (ii) rotating the winding support with respect to the base around a pitch axis of the winding support , (iiiA) rotating unlimitedly the at least one feeding device around a yaw axis of the winding support with respect to the base , and/or (iiiB) rotating unlimitedly the winding support around the yaw axis of the winding support with respect to the base , and (iv) rotating unlimitedly the winding support with respect to the base around the roll axis of the winding support. (i) feeding a filament , by means of at least one feeding device , towards the winding support , (ii) rotating the winding support with respect to the base around a pitch axis of the winding support , (iiiA) rotating unlimitedly the at least one feeding device around a yaw axis of the winding support with respect to the base , and/or (iiiB) rotating unlimitedly the winding support around the yaw axis of the winding support with respect to the base , and (iv) rotating unlimitedly the winding support with respect to the base around the roll axis of the winding support.
Helmet comprising: - a shell comprising at least one vent ; - one or more inserts of a cellular energy-absorbing material having a curved shape; and being characterised by - one or more retainers crossing the one or more inserts from side to side and fixed to the shell at opposing sides of each insert for constraining it to the shell , the one or more retainers are shaped so as to laterally and inwardly trap the one or more inserts . - a shell comprising at least one vent ; - one or more inserts of a cellular energy-absorbing material having a curved shape; and being characterised by - one or more retainers crossing the one or more inserts from side to side and fixed to the shell at opposing sides of each insert for constraining it to the shell , the one or more retainers are shaped so as to laterally and inwardly trap the one or more inserts .
A water-ice machine for producing and dispensing water-ice food products, comprising: - a box shaped holding body for containing a liquid base product to be mixed; - a treatment circuit for said liquid base product, so as to obtain water-ice food products, comprising thermal treatment means ; - means for dispensing said water-ice food product; - one or more actuators acting on said base product, said water-ice food products and/or parts of said machine ; - a water-ice making device comprising a cooling and mixing unit provided with at least one stirrer and further comprises a cylindrical structure , the stirrer being mounted on the outside of the cylindrical structure , the thermal treatment means consisting of a refrigerating circuit along which a refrigerating fluid flows which refrigerating circuit comprises one heat exchanger housed within the cylindrical structure ; the machine being characterized in that at least one of said one or more actuators comprises a brushless motor acting on said stirrer for driving the latter in rotation, and in that said brushless motor comprises an output shaft , a stator and a rotor provided with one or more permanent magnets and integral with the output shaft , said stirrer having a rotation shaft , the rotor being rotatably mounted at the outside of the cylindrical structure and the stator being housed in the cylindrical structure . - a box shaped holding body for containing a liquid base product to be mixed; - a treatment circuit for said liquid base product, so as to obtain water-ice food products, comprising thermal treatment means ; - means for dispensing said water-ice food product; - one or more actuators acting on said base product, said water-ice food products and/or parts of said machine ; - a water-ice making device comprising a cooling and mixing unit provided with at least one stirrer and further comprises a cylindrical structure , the stirrer being mounted on the outside of the cylindrical structure , the thermal treatment means consisting of a refrigerating circuit along which a refrigerating fluid flows which refrigerating circuit comprises one heat exchanger housed within the cylindrical structure ;
A laboratory device, in particular a rotary evaporator , for evaporating a substance, preferably under reduced pressure, having an evaporation flask for receiving the substance to be evaporated, a condenser for condensing the evaporated substance and a vapor passage for passing through the evaporated substance, which vapor passage is arranged in a vapor path between the evaporation flask and the condenser , characterized in that the laboratory device further comprises a detection unit for foam detection, which detection unit is provided outside of the vapor passage and/or of the evaporation flask , wherein the detection unit has a bifurcate shape and at least partially encloses the vapor passage and/or the evaporation flask , and wherein the detection unit has at least one sensor for detecting a signal. an evaporation flask for receiving the substance to be evaporated, a condenser for condensing the evaporated substance and a vapor passage for passing through the evaporated substance, which vapor passage is arranged in a vapor path between the evaporation flask and the condenser , characterized in that the laboratory device further comprises a detection unit for foam detection, which detection unit is provided outside of the vapor passage and/or of the evaporation flask , wherein the detection unit has a bifurcate shape and at least partially encloses the vapor passage and/or the evaporation flask , and wherein the detection unit has at least one sensor for detecting a signal.
A supporting bracket for a supporting arrangement for supporting an engine (M) and/or a transmission (G) of a vehicle and preferably for the load-transferring arrangement between a longitudinal carrier (L) and a crossmember (Q) of a vehicle frame structure, with: - a receiving space for receiving a bearing device for a holding device for mounting the engine (M) and/or the transmission (G), and - a connecting device for connecting to a crossmember (Q) of a vehicle frame structure, characterized in that - the receiving space is delimited by way of a bottom wall (B), two side walls (S) and an upper wall (O), and - a fastening device for mounting on a longitudinal carrier (L) of the vehicle frame structure comprises fastening openings which extend in side wall planes and therefore quasi parallel thereto. - a receiving space for receiving a bearing device for a holding device for mounting the engine (M) and/or the transmission (G), and - a connecting device for connecting to a crossmember (Q) of a vehicle frame structure, characterized in that - the receiving space is delimited by way of a bottom wall (B), two side walls (S) and an upper wall (O), and - a fastening device for mounting on a longitudinal carrier (L) of the vehicle frame structure comprises fastening openings which extend in side wall planes and therefore quasi parallel thereto.
Method for manufacturing a solenoid valve for controlling a fluid flow comprising a magnetic core and a movable magnetic armature , characterized by the following method steps: - forming the magnetic core from a sintered metal powder while leaving at least one slit-shaped clearance , the sintered metal powder consisting of a ferromagnetic metal, - filling the slit-shaped clearance with a sintered material of an electrically poorly conducting material in comparison with the material of the sintered metal powder, - sintering the magnetic core by heating to a temperature below the melting temperature of at least one constituent of the sintered metal powder. - forming the magnetic core from a sintered metal powder while leaving at least one slit-shaped clearance , the sintered metal powder consisting of a ferromagnetic metal, - filling the slit-shaped clearance with a sintered material of an electrically poorly conducting material in comparison with the material of the sintered metal powder, - sintering the magnetic core by heating to a temperature below the melting temperature of at least one constituent of the sintered metal powder.
A recombinant herpes simplex virus (HSV), wherein the recombinant HSV comprises a recombinant HSV genome comprising: (a) a modified UL53 gene comprising a deletion of the region of the UL53 gene that encodes amino acids 31-68 of wild-type gK; and (b) a modified UL20 gene comprising a deletion of the region of the UL20 gene that encodes amino acids 4-22 of wild-type UL20 protein; and wherein the recombinant HSV is capable of replication in a host cell and incapable of entry into axonal compartments of neurons. (a) a modified UL53 gene comprising a deletion of the region of the UL53 gene that encodes amino acids 31-68 of wild-type gK; and (b) a modified UL20 gene comprising a deletion of the region of the UL20 gene that encodes amino acids 4-22 of wild-type UL20 protein; and wherein the recombinant HSV is capable of replication in a host cell and incapable of entry into axonal compartments of neurons.
An on-body device, comprising: a glucose sensor assembly comprising: a proximal section comprising a connector support coupled with a proximal portion of a glucose sensor ; a distal tail section comprising a distal portion of the glucose sensor configured to be positioned under a skin surface and in contact with a bodily fluid of a subject; an enclosure comprising: a top portion ; and a base portion configured to be adhered to the skin surface of the subject by an adhesive patch ; and sensor electronics positioned within the enclosure, the sensor electronics comprising a processor , and a communications facility, wherein the base portion of the enclosure comprises a recess in a bottom exterior surface, the recess comprising a distal-facing opening, wherein the connector support is received through the distal-facing opening and into the recess , and wherein the glucose sensor is electrically coupled with the sensor electronics by the connector support when the connector support is received into the recess . a glucose sensor assembly comprising: a proximal section comprising a connector support coupled with a proximal portion of a glucose sensor ; a distal tail section comprising a distal portion of the glucose sensor configured to be positioned under a skin surface and in contact with a bodily fluid of a subject; a proximal section comprising a connector support coupled with a proximal portion of a glucose sensor ; a distal tail section comprising a distal portion of the glucose sensor configured to be positioned under a skin surface and in contact with a bodily fluid of a subject; an enclosure comprising: a top portion ; and a base portion configured to be adhered to the skin surface of the subject by an adhesive patch ; and a top portion ; and a base portion configured to be adhered to the skin surface of the subject by an adhesive patch ; and sensor electronics positioned within the enclosure, the sensor electronics comprising a processor , and a communications facility, wherein the base portion of the enclosure comprises a recess in a bottom exterior surface, the recess comprising a distal-facing opening, wherein the connector support is received through the distal-facing opening and into the recess , and wherein the glucose sensor is electrically coupled with the sensor electronics by the connector support when the connector support is received into the recess . wherein the base portion of the enclosure comprises a recess in a bottom exterior surface, the recess comprising a distal-facing opening, wherein the connector support is received through the distal-facing opening and into the recess , and wherein the glucose sensor is electrically coupled with the sensor electronics by the connector support when the connector support is received into the recess .
A fluid infusion device , comprising: a housing that defines an opening that receives a removable fluid reservoir and the housing includes a lock ; and a connector having a body , the body defining a graspable portion and a coupling portion , the coupling portion to be received within the opening of the housing to be coupled to the fluid reservoir, and characterized in that the graspable portion has a main branch and at least one wing coupled to the main branch that defines a locking tab to engage the lock to lock the connector to the fluid infusion device, the main branch extending from the coupling portion, the main branch defines a bore that extends along a longitudinal axis of the connector, the locking tab extends outward from the at least one wing beyond a perimeter of the coupling portion of the connector to engage the lock and the at least one wing is movable relative to the body to move the connector between a first, locked position and a second, unlocked position relative to the fluid infusion device. a housing that defines an opening that receives a removable fluid reservoir and the housing includes a lock ; and a connector having a body , the body defining a graspable portion and a coupling portion , the coupling portion to be received within the opening of the housing to be coupled to the fluid reservoir, and characterized in that the graspable portion has a main branch and at least one wing coupled to the main branch that defines a locking tab to engage the lock to lock the connector to the fluid infusion device, the main branch extending from the coupling portion, the main branch defines a bore that extends along a longitudinal axis of the connector, the locking tab extends outward from the at least one wing beyond a perimeter of the coupling portion of the connector to engage the lock and the at least one wing is movable relative to the body to move the connector between a first, locked position and a second, unlocked position relative to the fluid infusion device.
Arrangement for measuring a force and/or a torque (M t ) on a machine element which extends in an axis , which has a cavity extending in the axis and has at least one magnetization region extending circumferentially around the axis in an axial section of the machine element for magnetization; wherein the arrangement further comprises at least a first magnetic field sensor , a second magnetic field sensor , a third magnetic field sensor and a fourth magnetic field sensor , which are each designed for the individual measurement of an axial directional component of a magnetic field effected by the magnetization and by the force and/or by the torque (Mt) and are each located in the axial section of the one magnetization region or in one of the axial sections of the multiple magnetization regions ; wherein at least the first magnetic field sensor and the second magnetic field sensor are arranged in the cavity of the machine element , characterized in that the third magnetic field sensor and the fourth magnetic field sensor are at a greater distance from the axis than the first magnetic field sensor and the second magnetic field sensor .