mhurhangee/patent-ind-claim-en huggingface dataset:
An upper for securing to a sole structure to form an article of footwear , the upper comprising: a knitted component including a medial portion that at least partially forms a medial side of the upper, a lateral portion that at least partially forms a lateral side of the upper, and a throat portion located between the lateral portion and the medial portion, the throat portion configured to correspond with an upper surface of a foot of a wearer, the throat portion including two overlapping knit layers ; a plurality of lace-receiving elements , each located on either the medial side or the lateral side of the upper; characterized by the knitted component defining a plurality of lace channels in the throat portion, each of the lace channels being oriented diagonally with respect to a longitudinal axis of the article of footwear , wherein the lace channels are located in the knitted component in a throat area corresponding to an instep region or upper surface of a midfoot region of the foot; wherein the lace channels are embedded within the throat portion of the knitted component and between the two overlapping knit layers; and wherein the lace channels are positioned and oriented such that two of the lace receiving elements are located adjacent to opposite ends of each of the lace channels , the lace channels substantially following a natural path of a lace passing between the lace receiving elements , and the lace extending through the lace channels . a knitted component including a medial portion that at least partially forms a medial side of the upper, a lateral portion that at least partially forms a lateral side of the upper, and a throat portion located between the lateral portion and the medial portion, the throat portion configured to correspond with an upper surface of a foot of a wearer, the throat portion including two overlapping knit layers ; a plurality of lace-receiving elements , each located on either the medial side or the lateral side of the upper; characterized by the knitted component defining a plurality of lace channels in the throat portion, each of the lace channels being oriented diagonally with respect to a longitudinal axis of the article of footwear , wherein the lace channels are located in the knitted component in a throat area corresponding to an instep region or upper surface of a midfoot region of the foot; wherein the lace channels are embedded within the throat portion of the knitted component and between the two overlapping knit layers; and wherein the lace channels are positioned and oriented such that two of the lace receiving elements are located adjacent to opposite ends of each of the lace channels , the lace channels substantially following a natural path of a lace passing between the lace receiving elements , and the lace extending through the lace channels .
An apparatus configured for use with an image-guided system to calibrate a handpiece having a tip , the apparatus comprising: a tip extension having an attachment end in a rear and a round end in a front, the round end having a center configured to remain stationary during rotation of the round end in a recess during calibration, the attachment end having a female component and a remainder , wherein the female component of the attachment end has an arcuate cavity for mating with a correspondingly shaped male component of the tip of the handpiece so as to fixedly attach the attachment end to the tip of the handpiece , the male component being arcuate, wherein the tip extension also has a neck situated between the attachment end and the round end , a diameter of the neck is smaller than a diameter of the round end , wherein the tip extension has a longitudinal axis running from the front of the round end through the center of the round end through the diameter of the neck and through the attachment end to the rear of the attachment end , wherein the tip is arcuate so as to be curved along an arc relative to the longitudinal axis, the arc having a distal end whose extensional direction is substantially aligned with the longitudinal axis, and wherein the cavity has a distal end whose extensional direction is substantially aligned with the longitudinal axis. a tip extension having an attachment end in a rear and a round end in a front, the round end having a center configured to remain stationary during rotation of the round end in a recess during calibration, the attachment end having a female component and a remainder , wherein the female component of the attachment end has an arcuate cavity for mating with a correspondingly shaped male component of the tip of the handpiece so as to fixedly attach the attachment end to the tip of the handpiece , the male component being arcuate, wherein the tip extension also has a neck situated between the attachment end and the round end , a diameter of the neck is smaller than a diameter of the round end , wherein the tip extension has a longitudinal axis running from the front of the round end through the center of the round end through the diameter of the neck and through the attachment end to the rear of the attachment end , wherein the tip is arcuate so as to be curved along an arc relative to the longitudinal axis, the arc having a distal end whose extensional direction is substantially aligned with the longitudinal axis, and wherein the cavity has a distal end whose extensional direction is substantially aligned with the longitudinal axis.
A device for producing a hologram as a security feature of a security document, comprising a hologram master , a receptacle and/or guide for a holographic recording material , and a light source that emits coherent light , a modulator, particularly a spatial light modulator , that is arranged in such a way that the coherent light can be or is modulated locally according to an individualization pattern for encoding individualization information, as well as imaging optics for guiding the coherent light , so that the holographic recording material is irradiated with the coherent modulated light and at least a portion of the coherent modulated light is reflected on the hologram master or is diffracted in order to interfere with the coherent light radiating through the holographic recording material and thus expose the hologram in the recording material , wherein the hologram master , in a region in which the modulated coherent light is reflected or diffracted by the hologram master , is embodied such that a background pattern is imprinted on the diffracted or reflected coherent light, so that the background pattern can be perceived or detected in an individualized manner by means of the individualization information during a reconstruction of the exposed hologram with the individualization information, characterized in that the hologram master is a master hologram that comprises at least two different regions (15, 16, 101-104), each having a uniform appearance, and that the at least two different regions (15, 16, 101-104) have a different diffraction efficiency at an exposure angle of incidence at which light that is to be diffracted or reflected is incident on the hologram master , the different diffraction inefficiencies of the different regions (15, 16, 101-104) of the background pattern all being above a predetermined threshold value, and the master hologram and the individualization information being coordinated with one another such that at least a portion of a contour of one of the at least two regions (15, 16, 101-104) of the background pattern is altered by the individualization information and not stored in the hologram .
Loading head for receiving and/or discharging a load unit in a loading process, comprising a carrier device and at least one bearing device received thereon having at least one bearing part with a support surface , wherein the bearing device is provided and configured for supporting the load unit at least from beneath at least temporarily during the loading process by means of the support surface of the bearing part , wherein at least one retaining device is received on the carrier device having a retaining surface oriented transverse to the support surface of the bearing part , and wherein the bearing part of the loading head is movable relative to the retaining device in order to discharge the load unit from the loading head and to transfer it to a cargo area of a separate transport means by way of moving the bearing part backwards relative to the retaining device , wherein at least one engaging device having at least one engaging dog is provided on the carrier device , which is suitable and configured, during a movement of the loading head , to align a transportable load carrier on the loading surface of the transport means , on which a load unit is to be set down, in order to optionally set down the load unit onto a transportable load carrier aligned with the loading head on the loading surface of the transport means , characterized in that the engaging device is on the whole or partially height-adjustable.
A method for forming an integrated circuit capacitor, comprising: forming a first conductive layer over a semiconductor; forming a first dielectric layer over said first conductive layer; forming a second patterned conductive layer over said first dielectric layer and said first conductive layer; forming a second dielectric layer over said second patterned conductive layer; forming a third dielectric layer comprising a material selected from the group consisting of silicon carbide, silicon oxycarbide, silicon carbonitride, silicon oxycarbonitride and boron carbide over said second patterned conductive layer; forming a PMD dielectric layer over said third dielectric layer and said second patterned conductive layer; forming first and second openings in said PMD dielectric layer, the first opening formed over the second patterned conductive layer, the second opening formed over said first conductive layer, thereby exposing regions of said third dielectric layer, each opening formed to a different depth; removing said exposed region of said third dielectric layer thereby exposing regions of said second dielectric layer; removing said exposed region of said second dielectric layer; and forming a third conductive region in said openings of said PMD layer wherein said third conductive region contacts said second patterned conductive layer. forming a first conductive layer over a semiconductor; forming a first dielectric layer over said first conductive layer; forming a second patterned conductive layer over said first dielectric layer and said first conductive layer; forming a second dielectric layer over said second patterned conductive layer; forming a third dielectric layer comprising a material selected from the group consisting of silicon carbide, silicon oxycarbide, silicon carbonitride, silicon oxycarbonitride and boron carbide over said second patterned conductive layer; forming a PMD dielectric layer over said third dielectric layer and said second patterned conductive layer; forming first and second openings in said PMD dielectric layer, the first opening formed over the second patterned conductive layer, the second opening formed over said first conductive layer, thereby exposing regions of said third dielectric layer, each opening formed to a different depth; removing said exposed region of said third dielectric layer thereby exposing regions of said second dielectric layer; removing said exposed region of said second dielectric layer; and forming a third conductive region in said openings of said PMD layer wherein said third conductive region contacts said second patterned conductive layer.
Method for examining sample particles by X-ray radiation, comprising the steps: a) Generating a flow of a sample fluid along a fluid path in a transport direction Y, wherein sample particles are distributed in the sample fluid ; b) Exposing the sample fluid flowing through a first application section of the fluid path to a first laser light generated by a first laser light source for a first holding time period such that a first optical light pressure is applied on sample particles entering the first application section resulting in a bunch of sample particles , which is released at the end of the first holding time period; c) Repeating step b) such that the fluid flow of the sample fluid leaving the first application section carries a first sequence of spaced bunches of sample particles ; d) Exposing the sample fluid flowing through a detection section of the fluid path downstream to the first application section to an X-ray set of at least one X-ray pulse generated by an X-ray source ; e) Repeating step d) to form a second sequence of spaced X-ray sets such that each of the spaced X-ray sets partly or fully intersects a different bunch of the bunches of sample particles carried by the sample fluid flowing through the detection section ; and f) Detecting by means of an X-ray detector an X-ray radiation formed by the X-ray pulses of the second sequence of spaced X-ray sets modified by the bunches of sample particles in step e). a) Generating a flow of a sample fluid along a fluid path in a transport direction Y, wherein sample particles are distributed in the sample fluid ; b) Exposing the sample fluid flowing through a first application section of the fluid path to a first laser light generated by a first laser light source for a first holding time period such that a first optical light pressure is applied on sample particles entering the first application section resulting in a bunch of sample particles , which is released at the end of the first holding time period; c) Repeating step b) such that the fluid flow of the sample fluid leaving the first application section carries a first sequence of spaced bunches of sample particles ; d) Exposing the sample fluid flowing through a detection section of the fluid path downstream to the first application section to an X-ray set of at least one X-ray pulse generated by an X-ray source ; e) Repeating step d) to form a second sequence of spaced X-ray sets such that each of the spaced X-ray sets partly or fully intersects a different bunch of the bunches of sample particles carried by the sample fluid flowing through the detection section ; and f) Detecting by means of an X-ray detector an X-ray radiation formed by the X-ray pulses of the second sequence of spaced X-ray sets modified by the bunches of sample particles in step e).
An electric aircraft propulsion assembly for an electric vertical takeoff and landing, eVTOL, aircraft , the assembly comprising: an electric storage unit ; a first electric motor connected to power a first propulsor ; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected to the first electric motor , the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor ; a second converter connected between the first converter input connections and the second electric motor ; and a controller connected to control operation of the first and second converters, wherein the controller is configured to operate in a first mode in which the first and second converters are operated as DC:AC converters to drive the first and second electric motors and a second mode in which the first converter is operated to drive the first electric motor to power the first propulsor and the second converter is operated to drive the second electric motor to provide a braking torque on the second propulsor . an electric storage unit ; a first electric motor connected to power a first propulsor ; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected to the first electric motor , the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor ; a second converter connected between the first converter input connections and the second electric motor ; and a controller connected to control operation of the first and second converters, wherein the controller is configured to operate in a first mode in which the first and second converters are operated as DC:AC converters to drive the first and second electric motors and a second mode in which the first converter is operated to drive the first electric motor to power the first propulsor and the second converter is operated to drive the second electric motor to provide a braking torque on the second propulsor .
A mechanical seal arrangement comprising: - a first mechanical seal comprising a first rotating sliding ring and a first stationary sliding ring defining a first sealing gap therebetween, - a second mechanical seal having a second rotating sliding ring and a second stationary sliding ring defining a second seal gap therebetween, - a housing with an inlet and an outlet for a cooling liquid, - a rotating conveying sleeve which is joined to the first rotating sliding ring and the second rotating sliding ring - said conveying sleeve having a plurality of conveying grooves on its outer circumference, - wherein the first stationary sliding ring is arranged radially outside the conveying sleeve and has an inner circumference which is eccentric to an outer circumference of the conveying sleeve so that a circumferential eccentric gap is formed between the outer circumference of the conveying sleeve and the inner circumference of the first stationary sliding ring , characterized in in that - the first stationary sliding ring , on a rear side facing away from the first sealing gap , has a first slot directed towards the outlet and a first widening recess on the inner circumference , which recess opens into the first slot , - wherein an annular gap is formed adjacent to the rear side of the first stationary sliding ring between the housing and the outer circumference of the first stationary sliding ring , and. - wherein a second widening recess is formed on the housing , which recess opens from the annular gap into the outlet . - a first mechanical seal comprising a first rotating sliding ring and a first stationary sliding ring defining a first sealing gap therebetween, - a second mechanical seal having a second rotating sliding ring and a second stationary sliding ring defining a second seal gap therebetween, - a housing with an inlet and an outlet for a cooling liquid, - a rotating conveying sleeve which is joined to the first rotating sliding ring and the second rotating sliding ring - said conveying sleeve having a plurality of conveying grooves on its outer circumference, - wherein the first stationary sliding ring is arranged radially outside the conveying sleeve and has an inner circumference which is eccentric to an outer circumference of the conveying sleeve so that a circumferential eccentric gap is formed between the outer circumference of the conveying sleeve and the inner circumference of the first stationary sliding ring , characterized in in that - the first stationary sliding ring , on a rear side facing away from the first sealing gap , has a first slot directed towards the outlet and a first widening recess on the inner circumference , which recess opens into the first slot , - wherein an annular gap is formed adjacent to the rear side of the first stationary sliding ring between the housing and the outer circumference of the first stationary sliding ring , and. - wherein a second widening recess is formed on the housing , which recess opens from the annular gap into the outlet .
A neutron and gamma-ray collimator comprising: a neutron diaphragm ; a gamma-ray diaphragm ; a diaphragm fixing plate that fixes the neutron diaphragm and the gamma-ray diaphragm ; and a flight tube integrated with the diaphragm fixing plate and having a neutron shield and a gamma-ray shield lining an inner side of the neutron shield , and wherein a bismuth compound is used as the gamma-ray shield of the flight tube , characterised in that a gadolinium compound is used as the neutron diaphragm and the neutron shield of the flight tube a neutron diaphragm ; a gamma-ray diaphragm ; a diaphragm fixing plate that fixes the neutron diaphragm and the gamma-ray diaphragm ; and a flight tube integrated with the diaphragm fixing plate and having a neutron shield and a gamma-ray shield lining an inner side of the neutron shield , and wherein a bismuth compound is used as the gamma-ray shield of the flight tube , characterised in that a gadolinium compound is used as the neutron diaphragm and the neutron shield of the flight tube
A quick-release end effector for a medical device, the end effector comprising (a) an end effector body ; (b) an end effector coupling component disposed around and attached to the end effector body, the end effector coupling component comprising at least one male protrusion extending from the coupling component (c) at least one torque transfer protrusion defined in an exterior portion of the end effector body; (d) a rod disposed within the end effector body; (e) a rod coupling component disposed at a proximal portion of the rod, the rod coupling component comprising first mating features disposed on an external portion of the rod coupling component; and (f) first and second electrical contact rings disposed around the rod (a) an end effector body ; (b) an end effector coupling component disposed around and attached to the end effector body, the end effector coupling component comprising at least one male protrusion extending from the coupling component (c) at least one torque transfer protrusion defined in an exterior portion of the end effector body; (d) a rod disposed within the end effector body; (e) a rod coupling component disposed at a proximal portion of the rod, the rod coupling component comprising first mating features disposed on an external portion of the rod coupling component; and (f) first and second electrical contact rings disposed around the rod
A continuous process for making an article of manufacture comprising a fibrous structure, the continuous process comprising the steps of: a. providing one or more water-soluble filament-forming materials; b. forming an aqueous composition comprising the one or more water-soluble filament-forming materials; c. processing the aqueous composition to produce a filament-forming composition; d. delivering the filament-forming composition to one or more dies; e. spinning the filament-forming composition to form a plurality of water-soluble filaments; f. collecting the water-soluble filaments on a collection device to form a fibrous structure; and g. converting the fibrous structure into one or more articles of manufacture. a. providing one or more water-soluble filament-forming materials; b. forming an aqueous composition comprising the one or more water-soluble filament-forming materials; c. processing the aqueous composition to produce a filament-forming composition; d. delivering the filament-forming composition to one or more dies; e. spinning the filament-forming composition to form a plurality of water-soluble filaments; f. collecting the water-soluble filaments on a collection device to form a fibrous structure; and g. converting the fibrous structure into one or more articles of manufacture.
An ice adhesion reducing polymer comprising a cross-linked reaction product of the following: a siloxane selected from: or in which m is 1-1500; and n is 1-1500; and a polyisocyanate or a reactive coating containing a polyisocyanate. m is 1-1500; and n is 1-1500; and a polyisocyanate or a reactive coating containing a polyisocyanate.