mhurhangee/patent-ind-claim-en huggingface dataset:
A blasting system , comprising: a blasting machine wired to an array of detonators ; a switch connected to the blasting machine ; a router connected to the switch ; an Ethernet controller configured to: communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller ; and a protected Ethernet connection box operatively coupled in one or more connection paths between the Ethernet controller and the blasting machine , including clamping elements to protect network elements against electrical after effects associated with a blast or detonation, the clamping elements including Zeners, transient voltage suppressors (TVS) or silicon-controlled rectifiers (SCR) to protect the network elements against electrical after effects including plasma or high voltage electromagnetic (EM) fields associated with the blast or detonation. a blasting machine wired to an array of detonators ; a switch connected to the blasting machine ; a router connected to the switch ; an Ethernet controller configured to: communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller ; and communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller ; and a protected Ethernet connection box operatively coupled in one or more connection paths between the Ethernet controller and the blasting machine , including clamping elements to protect network elements against electrical after effects associated with a blast or detonation, the clamping elements including Zeners, transient voltage suppressors (TVS) or silicon-controlled rectifiers (SCR) to protect the network elements against electrical after effects including plasma or high voltage electromagnetic (EM) fields associated with the blast or detonation.
A sunlight converting device comprising: a wavelength converting unit including a wavelength converting film and configured to convert a wavelength of incident sunlight, the wavelength converting film coated with a wavelength conversion material for outputting light corresponding to a predetermined wavelength; a driving unit configured to move the wavelength converting unit to thereby change a sunlight-irradiated region of the wavelength converting film; and a control unit configured to control an operation of the driving unit to thereby adjust a wavelength outputted through the wavelength converting unit . characterized by a sensor unit configured to sense a state and wavelengths of the sunlight, wherein the control unit is configured to control the driving unit to adjust the sunlight-irradiated region of the wavelength converting unit depending on the state of the sunlight varying according to day, time, location, and weather, based on the state and wavelengths of the sunlight sensed by the sensor unit. a wavelength converting unit including a wavelength converting film and configured to convert a wavelength of incident sunlight, the wavelength converting film coated with a wavelength conversion material for outputting light corresponding to a predetermined wavelength; a driving unit configured to move the wavelength converting unit to thereby change a sunlight-irradiated region of the wavelength converting film; and a control unit configured to control an operation of the driving unit to thereby adjust a wavelength outputted through the wavelength converting unit . characterized by a sensor unit configured to sense a state and wavelengths of the sunlight, wherein the control unit is configured to control the driving unit to adjust the sunlight-irradiated region of the wavelength converting unit depending on the state of the sunlight varying according to day, time, location, and weather, based on the state and wavelengths of the sunlight sensed by the sensor unit.
Method for producing a machining segment (11A, 11B; 21A, 21B; 31; 41; 51; 71) for a machining tool (10A, 10B; 20A, 20B; 30; 40) from a first powdered matrix material (54; 74) and first hard material particles (55; 75) which are arranged according to a defined first particle pattern, wherein the machining segment is connected by an underside (58; 78) to a basic body (12A, 12B; 22A, 22B; 32; 42) of the machining tool (10A, 10B; 20A, 20B; 30; 40), and the machining segment has, on an upper side (59; 79) opposite from the underside (58; 78), a projection of the first hard material particles (55; 75), comprising the steps of: ▪ applying a supporting material (61; 81) as a supporting layer (62; 82), wherein the melting temperature (T melt ) of the supporting material (61; 81) is higher than the melting temperature (T 1 ) of the first matrix material (54; 74), ▪ arranging the first hard material particles (55; 75) according to the defined first particle pattern in the supporting material (61; 81), wherein the first hard material particles (55; 75) are arranged with a depth of penetration (d in ) in the supporting material (61; 81), ▪ applying a first layer (63; 83) of the first matrix material (54; 74) to the first hard material particles (55; 75) and the supporting material (61; 81) and fusing the first layer (63; 83) by means of a powder bed fusion method, and ▪ performing a sequence of a plurality of steps, which is performed N times, N ≥ 1, wherein, in a first step of the sequence, a layer (64; 84, 85) of the first matrix material (54; 74) is applied to the layer structure, and in a second step of the sequence, the layer (64; 84, 85) of the first matrix material (54; 74) is fused by means of the powder bed fusion method and connected to the layer structure, characterized in that the supporting material (61; 81) is powdered. ▪ applying a supporting material (61; 81) as a supporting layer (62; 82), wherein the melting temperature (T melt ) of the supporting material (61; 81) is higher than the melting temperature (T 1 ) of the first matrix material (54; 74), ▪ arranging the first hard material particles (55; 75) according to the defined first particle pattern in the supporting material (61; 81), wherein the first hard material particles (55; 75) are arranged with a depth of penetration (d in ) in the supporting material (61; 81), ▪ applying a first layer (63; 83) of the first matrix material (54; 74) to the first hard material particles (55; 75) and the supporting material (61; 81) and fusing the first layer (63; 83) by means of a powder bed fusion method, and ▪ performing a sequence of a plurality of steps, which is performed N times, N ≥ 1, wherein, in a first step of the sequence, a layer (64; 84, 85) of the first matrix material (54; 74) is applied to the layer structure, and in a second step of the sequence, the layer (64; 84, 85) of the first matrix material (54; 74) is fused by means of the powder bed fusion method and connected to the layer structure, characterized in that the supporting material (61; 81) is powdered.
Assembly forming a dental implant comprising an elongate inner body (1-1, 5-1) substantially resembling a tooth root and an outer element (1-2, 5-4) for fastening a bone structure that has a heterogeneous porous structure and is capable of providing bone growth, the fastening element being movable between a passive retracted position and an active extended position, the inner body and the outer fastening element being formed in one piece, characterized in that the inner body (1-1, 5-1) of the implant comprises an outer thread having a thread height H, and the fastening element is interposed between the turns of the thread and extends, between the passive retracted position and the active extended position, a distance equal to or greater than the thread height.
A stack of laminar material for forming packages, such as corrugated cardboard or similar laminar material, which stack (S) comprises full panels (P) having a predetermined total length (W) and provided with transverse creases (C) along which said full panels (P) are folded in accordion-like pleats, characterized in that it comprises at least one longitudinal cut (T) on each full panel (P) to form at least two transversely adjacent stacks (S', S") of partial panels (P', P") having respective partial widths (W', W") which are less than said total width (W), said at least one cut (T) being incomplete, so that each partial panel (P') of a respective stack (S') and the partial panel (P") of the stack (S") adjacent thereto have at least one connecting section (J) therebetween, which connecting section (J) having a predetermined minimum length (H) for holding the partial panels (P', P") of the adjacent stacks (S', S") together, to thereby keep the adjacent stacks (S', S") substantially aligned while facilitating the separation of each of the partial panels (P', P") as they are being unwound by a pulling action from each adjacent stack (S', S").
Fastening device for fastening at least one sensor to a railway rail , with at least one clamping bow , with at least two opposite clamping regions connected to at least one of the clamping bows , between which the at least one sensor and at least a part of the railway rail can be arranged and a clamping force (F) fixing the at least one sensor can be applied, and with at least one clamping device connected to the clamping bow , by means of which the clamping force (F) can be applied, wherein the fastening device has at least one crossbeam element , wherein the two clamping bows are connected to the crossbeam element in a movable manner, and the fastening device can be moved from an assembly and transport position into a fastening position and in the assembly and transport position is embodied to be arranged at least partially underneath a rail foot.
A data sending method, comprising: receiving, by a terminal, power configuration information sent by a network device, wherein the power configuration information comprises a one-to-one correspondence between power information and terminal status information and the power configuration information is a power control information list of entries, each entry comprising a sequence number, a data priority and the power information; determining , by the terminal based on the power configuration information, transmit power used by the terminal to send data; and sending, by the terminal to the network device, priorities of all data of the terminal; wherein the terminal status information comprises the priority of the data sent by the terminal; and the power information comprises at least one of expected receive power of the network device, transmit power used by the terminal to communicate with the network device, and transmit power used by the terminal to perform Device-to-Device, D2D, communication. receiving, by a terminal, power configuration information sent by a network device, wherein the power configuration information comprises a one-to-one correspondence between power information and terminal status information and the power configuration information is a power control information list of entries, each entry comprising a sequence number, a data priority and the power information; determining , by the terminal based on the power configuration information, transmit power used by the terminal to send data; and sending, by the terminal to the network device, priorities of all data of the terminal; wherein the terminal status information comprises the priority of the data sent by the terminal; and the power information comprises at least one of expected receive power of the network device, transmit power used by the terminal to communicate with the network device, and transmit power used by the terminal to perform Device-to-Device, D2D, communication.
A composition comprising a hydrophilic substantially nonionic vinyl or acrylic brush polymer having pendant polyether groups and having a weight average molecular weight of from 10,000 to 50,000,000, wherein the brush copolymer at a pH of from 1 to 14 contains less than 10 x 10 -5 mol of anionically or cationically charged monomers or polymer repeat units, per gram of polymer, based on the total solids in the polymer, and wherein the polymer is formed by polymerization conducted in aqueous solution with a thermal initiator selected from the group consisting of a persulfate or a peracid.
A compound of formula (I) wherein the dotted line between C-3 and C-4 together with the carbon - carbon bond forms a single bond and the dotted line between C-4 and C-5 together with the carbon - carbon bond forms a double bond; or wherein the dotted line between C-3 and C-4 together with the carbon - carbon bond forms a double bond and the dotted line between C-4 and C-5 together with the carbon - carbon bond forms a single bond. wherein the dotted line between C-3 and C-4 together with the carbon - carbon bond forms a single bond and the dotted line between C-4 and C-5 together with the carbon - carbon bond forms a double bond; or wherein the dotted line between C-3 and C-4 together with the carbon - carbon bond forms a double bond and the dotted line between C-4 and C-5 together with the carbon - carbon bond forms a single bond.
An austenitic nickel base alloy consisting the following elements in weight%: C ≤ 0.03; Si ≤ 1.0; Mn ≤ 1.5; S ≤ 0.03; P ≤ 0.03; Cr 25 to 35; Ni 42 to 52; Mo 6.1 to 9; N 0.07 - 0.12; Cu ≤ 0.4; optionally one or more of the following elements Al, Mg, Ca, Ce, and B the total content of these elements is less than or equal to 1.0 wt% Balance Fe and unavoidable impurities; and fulfilling the following conditions: Cr eq /Ni eq is equal to or less than 0.80; and PRE is equal or greater than 90; wherein Cr eq is wt % Cr + wt % Mo + 1.5 * wt % Si + 0.5 * wt % Nb Ni eq is wt % Ni + 30 * wt % C + 30 * wt % N + 0.5 * wt % Mn PRE is wt % Cr + 10 * wt % Mo + 20 * wt % N . C ≤ 0.03; Si ≤ 1.0; Mn ≤ 1.5; S ≤ 0.03; P ≤ 0.03; Cr 25 to 35; Ni 42 to 52; Mo 6.1 to 9; N 0.07 - 0.12; Cu ≤ 0.4; optionally one or more of the following elements Al, Mg, Ca, Ce, and B the total content of these elements is less than or equal to 1.0 wt% Balance Fe and unavoidable impurities; and fulfilling the following conditions: Cr eq /Ni eq is equal to or less than 0.80; and PRE is equal or greater than 90; wherein Cr eq is wt % Cr + wt % Mo + 1.5 * wt % Si + 0.5 * wt % Nb Ni eq is wt % Ni + 30 * wt % C + 30 * wt % N + 0.5 * wt % Mn PRE is wt % Cr + 10 * wt % Mo + 20 * wt % N . Cr eq /Ni eq is equal to or less than 0.80; and PRE is equal or greater than 90; wherein Cr eq is wt % Cr + wt % Mo + 1.5 * wt % Si + 0.5 * wt % Nb Ni eq is wt % Ni + 30 * wt % C + 30 * wt % N + 0.5 * wt % Mn PRE is wt % Cr + 10 * wt % Mo + 20 * wt % N .
A helmet chin strap divider comprising: a first support connected to a first chin strap extended from the front of the side surface of a helmet; and a second support rotatably coupled to the first support in such a manner as to be connected to a second chin strap extended from the rear of the side surface of the helmet. a first support connected to a first chin strap extended from the front of the side surface of a helmet; and a second support rotatably coupled to the first support in such a manner as to be connected to a second chin strap extended from the rear of the side surface of the helmet.
Method of controlling a hybrid propulsion system , the method being organized in a hierarchical control structure having an outer control layer , an inner control layer , and a functional layer of learning strategies, the method comprising the following steps: - receiving a plurality of exogenous inputs from the external environment and a plurality of feedbacks from the hybrid propulsion system , - based on the previous step, selecting, using adaptive logic, a propulsion operating mode for the hybrid propulsion system by means of the outer control layer , - controlling subsystems of the hybrid propulsion system by means of the inner control layer , wherein the step of controlling subsystems of the hybrid propulsion system by means of the inner control layer , is executed by the following steps: a) managing the power demand predictively and with the aid of the functional layer of learning strategies by means of a first functional block , and b) managing the coordinated and multi-variable control of subsystems of the hybrid propulsion system by means of a third functional block , the control method being characterised in that the step of controlling subsystems of the hybrid propulsion system is executed by the following step which follows step a) and precedes step b): - distributing the power of the hybrid propulsion system to the front and rear axles by means of a second functional block . - receiving a plurality of exogenous inputs from the external environment and a plurality of feedbacks from the hybrid propulsion system , - based on the previous step, selecting, using adaptive logic, a propulsion operating mode for the hybrid propulsion system by means of the outer control layer , - controlling subsystems of the hybrid propulsion system by means of the inner control layer , wherein the step of controlling subsystems of the hybrid propulsion system by means of the inner control layer , is executed by the following steps: a) managing the power demand predictively and with the aid of the functional layer of learning strategies by means of a first functional block , and b) managing the coordinated and multi-variable control of subsystems of the hybrid propulsion system by means of a third functional block , a) managing the power demand predictively and with the aid of the functional layer of learning strategies by means of a first functional block , and b) managing the coordinated and multi-variable control of subsystems of the hybrid propulsion system by means of a third functional block , - distributing the power of the hybrid propulsion system to the front and rear axles by means of a second functional block .
Composite pane having electrically controllable optical properties, comprising: - an outer pane , a first intermediate layer , a second intermediate layer , and an inner pane , - a functional element having electrically controllable optical properties, which is arranged between the first intermediate layer and the second intermediate layer , and - a thermoplastic frame layer , which surrounds the functional element in the manner of a frame, wherein the outer pane and the inner pane are bonded to one another via the first intermediate layer , the second intermediate layer , and the thermoplastic frame layer ; and an optical waveguide is arranged at least partially between the outer pane and the inner pane , wherein the optical waveguide comprises at least one optical fiber made of glass and/or plastic and is at least partially light scattering, wherein the optical waveguide is arranged between the thermoplastic frame layer and the second intermediate layer . - an outer pane , a first intermediate layer , a second intermediate layer , and an inner pane , - a functional element having electrically controllable optical properties, which is arranged between the first intermediate layer and the second intermediate layer , and - a thermoplastic frame layer , which surrounds the functional element in the manner of a frame,
Film bag comprising a bag body made of a bag film having at least two mutually opposite front walls , wherein a printed material section is fastened to a part of a circumferential edge of the material section with a permanent fastening seam on one of the front walls and adjacent to the fastening seam has a tear line in the form of a material weakening, wherein the fastening seam extends over a fraction between 40% and 98% of the circumferential edge and wherein the front walls have a substantially rectangular shape with two side edges, an upper edge and a lower edge, characterized in that the material section extends as far as the side edges, the lower edge and the upper edge of the associated front wall and is fastened to each of the edges with the fastening seam at least in sections.
An assembly for rotational equipment, the assembly comprising: a stator ; a rotor extending axially along a centerline , the rotor including a linkage , a first rotor disk , and a second rotor disk , wherein the linkage extends axially from the first rotor disk to the second rotor disk ; and a seal assembly including a hydrostatic non-contact seal , wherein the seal assembly is configured for sealing a gap radially between the stator and the linkage , wherein the non-contact seal is positioned directly radially above and is axially aligned with a cylindrical surface of a seal portion of the linkage , and wherein the non-contact seal comprises: an annular base ; a plurality of shoes arranged around and radially adjacent the linkage ; and a plurality of spring elements , each of the spring elements radially between and connecting a respective one of the shoes to the base , characterised in that : the linkage is removably attached to the second rotor disk , and the seal portion of the linkage has a hardface which forms the cylindrical surface , wherein the seal portion of the linkage is radially thicker by an additional thickness than adjacent portions of the linkage , wherein the hardface provides a portion of the additional thickness. a stator ; a rotor extending axially along a centerline , the rotor including a linkage , a first rotor disk , and a second rotor disk , wherein the linkage extends axially from the first rotor disk to the second rotor disk ; and a seal assembly including a hydrostatic non-contact seal , wherein the seal assembly is configured for sealing a gap radially between the stator and the linkage , wherein the non-contact seal is positioned directly radially above and is axially aligned with a cylindrical surface of a seal portion of the linkage , and wherein the non-contact seal comprises: an annular base ; a plurality of shoes arranged around and radially adjacent the linkage ; and a plurality of spring elements , each of the spring elements radially between and connecting a respective one of the shoes to the base , an annular base ; a plurality of shoes arranged around and radially adjacent the linkage ; and a plurality of spring elements , each of the spring elements radially between and connecting a respective one of the shoes to the base , characterised in that : the linkage is removably attached to the second rotor disk , and the seal portion of the linkage has a hardface which forms the cylindrical surface , wherein the seal portion of the linkage is radially thicker by an additional thickness than adjacent portions of the linkage , wherein the hardface provides a portion of the additional thickness. the linkage is removably attached to the second rotor disk , and the seal portion of the linkage has a hardface which forms the cylindrical surface , wherein the seal portion of the linkage is radially thicker by an additional thickness than adjacent portions of the linkage , wherein the hardface provides a portion of the additional thickness.