mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic agent for changing the color of keratin fibers, comprising, in a cosmetically acceptable carrier, a) at least one compound selected from the group of oxidation dye precursors, substantive dyes and mixtures thereof, b) at least one non-ionic silicone polymer in a total amount of 0.005 to 0.5 wt.%, based on the total weight of the cosmetic agent, containing at least one structural unit of formula (I) and at least one structural unit of formula (II) in which n represents integers from 1 to 5, B is a direct bond or a heteroatom from the group of O, N or S, and R is a group *-(CH 2 CH 2 O) x -H or *-(CH 2 CHMeO) y -H or *-(CH 2 CH 2 O) x -(CH 2 CHMeO) y -H, where x and y, each independently of one another, are integers from 2 to 20, wherein the cosmetic agent contains at least one non-ionic silicone polymer of formula (III) in which R 1 and R 2 each represent, independently of one another, a methyl group or a hydroxyl group, x and z each represent, independently of one another, an integer from 1 to 1,000, n represents the integers 2 or 3, and m represents integers from 5 to 9. a) at least one compound selected from the group of oxidation dye precursors, substantive dyes and mixtures thereof, b) at least one non-ionic silicone polymer in a total amount of 0.005 to 0.5 wt.%, based on the total weight of the cosmetic agent, containing at least one structural unit of formula (I) and at least one structural unit of formula (II) in which n represents integers from 1 to 5, B is a direct bond or a heteroatom from the group of O, N or S, and R is a group *-(CH 2 CH 2 O) x -H or *-(CH 2 CHMeO) y -H or *-(CH 2 CH 2 O) x -(CH 2 CHMeO) y -H, where x and y, each independently of one another, are integers from 2 to 20, wherein the cosmetic agent contains at least one non-ionic silicone polymer of formula (III) in which R 1 and R 2 each represent, independently of one another, a methyl group or a hydroxyl group, x and z each represent, independently of one another, an integer from 1 to 1,000, n represents the integers 2 or 3, and m represents integers from 5 to 9. n represents integers from 1 to 5, B is a direct bond or a heteroatom from the group of O, N or S, and R is a group *-(CH 2 CH 2 O) x -H or *-(CH 2 CHMeO) y -H or *-(CH 2 CH 2 O) x -(CH 2 CHMeO) y -H, where x and y, each independently of one another, are integers from 2 to 20, R 1 and R 2 each represent, independently of one another, a methyl group or a hydroxyl group, x and z each represent, independently of one another, an integer from 1 to 1,000, n represents the integers 2 or 3, and m represents integers from 5 to 9.
Tunnel boring machine comprising a rotatable cutting wheel , comprising a number of excavation tools which are attached at specific excavation tool positions on the cutting wheel , comprising a number of sensor units , wherein one sensor unit is assigned to one excavation tool in each case and is configured to detect the state of the relevant excavation tool in the form of assigned excavation tool data, and comprising a data processing apparatus which is connected to the sensor units , characterised in that one excavation tool data memory region of an excavation tool measurement data memory is provided for each sensor unit , into which memory region the excavation tool data assigned to a specific excavation tool can be read from the sensor unit assigned to the relevant excavation tool , in that the data processing apparatus comprises a geodata memory in which geodata characteristic of the geology to be traversed for a tunnelling route to be driven in a tunnelling direction can be stored, in that the data processing apparatus comprises a tunnelling planning unit having a central tool management module to which the excavation tool measurement data memory , a tunnelling measurement data memory and the geodata memory are connected and by means of which basic parameters for a current tunnelling operation and characteristic data for the excavation tools can be stored, wherein tunnelling parameters and the excavation tool positions of excavation tools between tool change prediction planes lying in the tunnelling direction can be determined by means of the tunnelling planning unit on the basis of the geodata and the excavation tool data in such a way that, at the tool change prediction planes , for excavation tools that only reach the next tool change prediction plane in a functional state at a different excavation tool position, a position change takes place to one or another excavation tool position and, for excavation tools that no longer reach the next tool change prediction plane in a functional state at any excavation tool position, an exchange takes place for an excavation tool to be newly installed.
Device for regulating an air stream for an air inlet of a motor vehicle, comprising a housing defining a flow duct in which an air stream flows, in which a cooling unit comprising at least one heat exchanger and a motor-fan unit is at least partially arranged, the housing comprising a sealing means to prevent any air from leaking out of the flow duct , the cooling unit comprises a support frame in which said at least one heat exchanger (8; 10) and said motor-fan unit are arranged, the housing being fixed to the support frame in such a way that the support frame corresponds to part of the flow duct , characterized in that the housing comprises a first part arranged upstream of the support frame and connecting an air inlet of the flow duct to the support frame , and a second part arranged downstream of the support frame , said sealing means being arranged between the support frame and each part , and in that the first part is made up of two half-housings (2a 1 , 2a 2 ) which together form said flow duct , the sealing means being arranged between each half-housing (2a 1 , 2a 2 ). the cooling unit comprises a support frame in which said at least one heat exchanger (8; 10) and said motor-fan unit are arranged, the housing being fixed to the support frame in such a way that the support frame corresponds to part of the flow duct , characterized in that the housing comprises a first part arranged upstream of the support frame and connecting an air inlet of the flow duct to the support frame , and a second part arranged downstream of the support frame , said sealing means being arranged between the support frame and each part , and in that the first part is made up of two half-housings (2a 1 , 2a 2 ) which together form said flow duct , the sealing means being arranged between each half-housing (2a 1 , 2a 2 ).
A system for limiting the compression force applied by an orthopaedic fastening assembly to a bone and/or fracture, the system comprising: a first component driver comprising a distal end for engaging a first member of the fastening assembly and a proximal end including a stop; and a second component driver comprising a distal end for engaging a second member of the fastening assembly and a proximal end , the second component driver including a structure disposed between the proximal end and the distal end of the second member that engages the stop of the first component driver to limit axial translation of the first member relative to the second member; characterised in that the system further comprises a stabilization structure selected from the group consisting of a plate and an intramedullary nail, the stabilization structure comprising a shaped opening configured to receive the first member and the second member in a side-by-side arrangement. a first component driver comprising a distal end for engaging a first member of the fastening assembly and a proximal end including a stop; and a second component driver comprising a distal end for engaging a second member of the fastening assembly and a proximal end , the second component driver including a structure disposed between the proximal end and the distal end of the second member that engages the stop of the first component driver to limit axial translation of the first member relative to the second member; characterised in that the system further comprises a stabilization structure selected from the group consisting of a plate and an intramedullary nail, the stabilization structure comprising a shaped opening configured to receive the first member and the second member in a side-by-side arrangement.
A method for fabricating a semiconductor device , comprising: bonding a first die (D1, D1') and a second die (D2) face to face, the first die (D1, D1') including a first substrate, an insulating layer on a face side of the first substrate, a first contact structure on the face side of the first die (D1, D1') extending through a first portion of the insulating layer , and a semiconductor layer on a face side of a second portion of the insulating layer and first transistors formed on a face side of the semiconductor layer ; exposing the first contact structure from the back side of the first die (D1, D1') by removing the first substrate from a back side of the first die (D1, D1'); forming, from the back side of the first die (D1, D1'), a contact hole in the second portion of the insulating layer , the contact hole exposing the semiconductor layer ; and forming, on the back side of the first die (D1, D1'), a first pad-out structure conductively connected with the first contact structure and a second pad-out structure on the contact hole that is conductively connected with the semiconductor layer , wherein exposing the first contact structure from the back side of the first die (D1, D1') further comprises: removing an etch stop layer after removing the first substrate, the etch stop layer being sandwiched between the first substrate and the insulating layer . bonding a first die (D1, D1') and a second die (D2) face to face, the first die (D1, D1') including a first substrate, an insulating layer on a face side of the first substrate, a first contact structure on the face side of the first die (D1, D1') extending through a first portion of the insulating layer , and a semiconductor layer on a face side of a second portion of the insulating layer and first transistors formed on a face side of the semiconductor layer ; exposing the first contact structure from the back side of the first die (D1, D1') by removing the first substrate from a back side of the first die (D1, D1'); forming, from the back side of the first die (D1, D1'), a contact hole in the second portion of the insulating layer , the contact hole exposing the semiconductor layer ; and forming, on the back side of the first die (D1, D1'), a first pad-out structure conductively connected with the first contact structure and a second pad-out structure on the contact hole that is conductively connected with the semiconductor layer , wherein exposing the first contact structure from the back side of the first die (D1, D1') further comprises: removing an etch stop layer after removing the first substrate, the etch stop layer being sandwiched between the first substrate and the insulating layer .
Conching apparatus , comprising: - a container which forms a receiving space for a product mass, - a shaft which is accommodated at least in part in the container and is configured to rotate about its longitudinal axis (L), and - at least one conching tool which is coupled with the shaft for joint rotation therewith so that the conching tool , during conching operation of the conching apparatus , moves in a first direction of revolution (U1) along a path of revolution , wherein the conching tool comprises an active surface facing the inside wall of the container , wherein the active surface is configured such that a radial gap (S) between the inside wall of the container and the active surface decreases at least in part when viewed contrary to the first direction of revolution (U1), characterised in that - the receiving space , in a region seen in the direction of the longitudinal axis (L), has a largest cross-section , wherein - a radial extent (E) of the receiving space increases from each axial end of the receiving space to the region of the largest cross-section of the receiving space , and wherein a product outlet and/or an air outlet is arranged in or in the vicinity of the region of the largest cross-section . - a container which forms a receiving space for a product mass, - a shaft which is accommodated at least in part in the container and is configured to rotate about its longitudinal axis (L), and - at least one conching tool which is coupled with the shaft for joint rotation therewith so that the conching tool , during conching operation of the conching apparatus , moves in a first direction of revolution (U1) along a path of revolution , wherein the active surface is configured such that a radial gap (S) between the inside wall of the container and the active surface decreases at least in part when viewed contrary to the first direction of revolution (U1), characterised in that - the receiving space , in a region seen in the direction of the longitudinal axis (L), has a largest cross-section , wherein - a radial extent (E) of the receiving space increases from each axial end of the receiving space to the region of the largest cross-section of the receiving space , and wherein a product outlet and/or an air outlet is arranged in or in the vicinity of the region of the largest cross-section . - the receiving space , in a region seen in the direction of the longitudinal axis (L), has a largest cross-section , wherein - a radial extent (E) of the receiving space increases from each axial end of the receiving space to the region of the largest cross-section of the receiving space , and wherein a product outlet and/or an air outlet is arranged in or in the vicinity of the region of the largest cross-section .
A method performed in a multi-tenant fabric comprising spine nodes and leaf nodes, wherein leaf nodes comprise ingress and egress nodes of the fabric for communicating with end points and spine nodes interconnect the leaf nodes, the method comprising: providing configured rates of traffic defined for a tenant associated with a flow transmitted in the fabric, the flow extending from an ingress node through the fabric via a spine node to an egress node , wherein the configured rates of traffic comprise a first configured rate of traffic at the ingress node and a second configured rate of traffic at the egress node which in combination provide an end-to-end bandwidth guarantee for the flow; measuring a rate of traffic associated with the flow at the egress node; marking a plurality of packets in the flow as protected at the egress node to match the measured rate of traffic with the second configured rate of traffic for the flow at the egress node, wherein marking the packets comprises marking the packets according to a marking probability calculated based on the second configured rate of traffic and the measured rate of traffic; and dropping a plurality of non-protected packets at the egress node when a queue at the egress node is congested; wherein a portion of the packets comprise a Forward Congestion Notification, FCN, bit set by the spine node when the fabric is congested to provide deferred dropping at the egress node, the method further comprising: dropping one or more unprotected packets having the FCN bit set at the egress node. providing configured rates of traffic defined for a tenant associated with a flow transmitted in the fabric, the flow extending from an ingress node through the fabric via a spine node to an egress node , wherein the configured rates of traffic comprise a first configured rate of traffic at the ingress node and a second configured rate of traffic at the egress node which in combination provide an end-to-end bandwidth guarantee for the flow; measuring a rate of traffic associated with the flow at the egress node; marking a plurality of packets in the flow as protected at the egress node to match the measured rate of traffic with the second configured rate of traffic for the flow at the egress node, wherein marking the packets comprises marking the packets according to a marking probability calculated based on the second configured rate of traffic and the measured rate of traffic; and dropping a plurality of non-protected packets at the egress node when a queue at the egress node is congested; wherein a portion of the packets comprise a Forward Congestion Notification, FCN, bit set by the spine node when the fabric is congested to provide deferred dropping at the egress node, the method further comprising: dropping one or more unprotected packets having the FCN bit set at the egress node.
A microwave energy interactive structure comprising: a susceptor film comprising microwave energy interactive material on a polymer film ; a support layer joined to the microwave energy interactive material ; and an adjoining layer joined to the support layer such that the support layer is disposed between the susceptor film and the adjoining layer , wherein the adjoining layer comprises a paper-based material, wherein the adjoining layer is joined to the support layer by a first adhesive region and a second adhesive region, wherein the first adhesive region lies along a first marginal area of the adjoining layer , and the second adhesive region lies along a second marginal area of the adjoining layer , wherein the first marginal area and the second marginal area are opposed peripheral edges of the adjoining layer , the first adhesive region and the second adhesive region each extending in at least a portion of the adjoining layer , wherein a non-adhesive region (530d; 530e; 530f; 530g) is disposed between the first adhesive region and second adhesive region. a susceptor film comprising microwave energy interactive material on a polymer film ; a support layer joined to the microwave energy interactive material ; and an adjoining layer joined to the support layer such that the support layer is disposed between the susceptor film and the adjoining layer , wherein the adjoining layer comprises a paper-based material, wherein the adjoining layer is joined to the support layer by a first adhesive region and a second adhesive region, wherein the first adhesive region lies along a first marginal area of the adjoining layer , and the second adhesive region lies along a second marginal area of the adjoining layer , wherein the first marginal area and the second marginal area are opposed peripheral edges of the adjoining layer , the first adhesive region and the second adhesive region each extending in at least a portion of the adjoining layer , wherein a non-adhesive region (530d; 530e; 530f; 530g) is disposed between the first adhesive region and second adhesive region.
A method for generating a dynamic intervertebral indicator of an intervertebral prosthesis , said intervertebral prosthesis being configured to be placed in an initial position between two vertebras (L1, L2), said intervertebral prosthesis comprising at least one vibration sensor configured to measure the mechanical vibrations of a medium comprising said intervertebral prosthesis and an intervertebral prosthesis environment, wherein the method comprises the steps of: a) receiving data measurements from the intervertebral prosthesis and storing said data into a computer-readable data carrier; b) determining at least one vibration pattern of stored data; c) comparing the at least one vibration pattern with a at least one reference model; and d) generating from said comparison an intervertebral indicator; and characterized in that the said vibration pattern is: e) a resonant frequency; and/or f) a spectral pattern defined in a predefined amplitude range, a predefined frequency range and a predefined phase range of a predefined vibration signal; and/or g) a spectral density; and/or h) at least one amplitude of the vibration signal in a predetermined frequency range beyond a predefined threshold; and/or i) a repetition of a spectral patterns in a predefined duration. a) receiving data measurements from the intervertebral prosthesis and storing said data into a computer-readable data carrier; b) determining at least one vibration pattern of stored data; c) comparing the at least one vibration pattern with a at least one reference model; and d) generating from said comparison an intervertebral indicator; e) a resonant frequency; and/or f) a spectral pattern defined in a predefined amplitude range, a predefined frequency range and a predefined phase range of a predefined vibration signal; and/or g) a spectral density; and/or h) at least one amplitude of the vibration signal in a predetermined frequency range beyond a predefined threshold; and/or i) a repetition of a spectral patterns in a predefined duration.
A method of a first wireless communication device for enabling inbound Internet protocol, IP, traffic to the first wireless communication device, wherein the first wireless communication device has an operator specific device identity related to an operator network and is subject to network address translation, NAT, the method being characterized in comprising: transmitting , to a server associated with the operator network and with a wake-up server identity, a wake-up registration request; acquiring , from the server, a wake-up identifier comprising at least a first part and a second part, wherein the first part is indicative of a wake-up device identity associated with the operator specific device identity of the first wireless communication device and the second part is indicative of the wake-up server identity, wherein the wake-up identifier is for triggering a wake-up action of the first wireless communication device, and wherein the wake-up action comprises establishing an outbound IP connection from the first wireless communication device to the operator network to enable the inbound IP traffic; distributing the wake-up identifier to one or more second communication devices unable, due to the NAT, to establish an inbound IP connection to the first wireless communication device; receiving a wake-up message based on the operator specific device identity; and performing the wake-up action in response to receiving the wake-up message. transmitting , to a server associated with the operator network and with a wake-up server identity, a wake-up registration request; acquiring , from the server, a wake-up identifier comprising at least a first part and a second part, wherein the first part is indicative of a wake-up device identity associated with the operator specific device identity of the first wireless communication device and the second part is indicative of the wake-up server identity, wherein the wake-up identifier is for triggering a wake-up action of the first wireless communication device, and wherein the wake-up action comprises establishing an outbound IP connection from the first wireless communication device to the operator network to enable the inbound IP traffic; distributing the wake-up identifier to one or more second communication devices unable, due to the NAT, to establish an inbound IP connection to the first wireless communication device; receiving a wake-up message based on the operator specific device identity; and performing the wake-up action in response to receiving the wake-up message.